mhurhangee/ep-ind-claims huggingface dataset:
A method for classifying emails, comprising: acquiring,using a processor, an email composed by a user, a classification tag corresponding to the email, and an identification code corresponding to the email, comprising: acquiring the email composed by the user; determining whether an email classifier corresponding to the email exists locally, the email classifier including the classification tag and identification code; and in response to a determination that the email classifier corresponding to the email does not exist locally: prompting a user to input the classification tag; regarding the classification tag input by the user as the classification tag; generating the classification tag; and setting up a classification rule corresponding to the email classifier; including,using the processor, the classification tag corresponding to the email and the identification code corresponding to the email in the email; and sending, using the processor, the email to receiving terminals and causing the receiving terminals to classify the received email based on the classification tag and identification code corresponding to the email. acquiring,using a processor, an email composed by a user, a classification tag corresponding to the email, and an identification code corresponding to the email, comprising: acquiring the email composed by the user; determining whether an email classifier corresponding to the email exists locally, the email classifier including the classification tag and identification code; and in response to a determination that the email classifier corresponding to the email does not exist locally: prompting a user to input the classification tag; regarding the classification tag input by the user as the classification tag; generating the classification tag; and setting up a classification rule corresponding to the email classifier; acquiring the email composed by the user; determining whether an email classifier corresponding to the email exists locally, the email classifier including the classification tag and identification code; and in response to a determination that the email classifier corresponding to the email does not exist locally: prompting a user to input the classification tag; regarding the classification tag input by the user as the classification tag; generating the classification tag; and setting up a classification rule corresponding to the email classifier; prompting a user to input the classification tag; regarding the classification tag input by the user as the classification tag; generating the classification tag; and setting up a classification rule corresponding to the email classifier; including,using the processor, the classification tag corresponding to the email and the identification code corresponding to the email in the email; and sending, using the processor, the email to receiving terminals and causing the receiving terminals to classify the received email based on the classification tag and identification code corresponding to the email.
A method of moving a controlled amount of a fluid comprising: providing: a first fluid stream comprising a first fluid flowing in a laminar flow; a second fluid stream comprising a second fluid flowing in a laminar flow adjacent to said first fluid stream; and a third fluid stream comprising a third fluid flowing in a laminar flow adjacent to said second fluid stream so that said second fluid stream is disposed between said first fluid stream and said third fluid stream; where said first fluid stream, said second fluid stream, and said third fluid stream are separated by polarity or hydrophobicity or surface free energy of the surface upon which they are disposed, or by the use of electrowetting techniques or by the use of directed laminar flow; using a pulse laser to generate a cavitation bubble in said first fluid, wherein the cavitation bubble imparts a sufficient velocity to a portion of the first fluid to thereby move a controlled volume of said second fluid that is operatively coupled to the first fluid into the third fluid stream to form a controlled volume droplet in said third fluid stream; wherein the controlled volume of the second fluid is about 1 microliter or less; and wherein the cavitation bubble has a duration of about 1 millisecond or less; and wherein the cavitation bubble is generated by irradiation of a volume of the first fluid with the pulse laser. a first fluid stream comprising a first fluid flowing in a laminar flow; a second fluid stream comprising a second fluid flowing in a laminar flow adjacent to said first fluid stream; and a third fluid stream comprising a third fluid flowing in a laminar flow adjacent to said second fluid stream so that said second fluid stream is disposed between said first fluid stream and said third fluid stream; where said first fluid stream, said second fluid stream, and said third fluid stream are separated by polarity or hydrophobicity or surface free energy of the surface upon which they are disposed, or by the use of electrowetting techniques or by the use of directed laminar flow; using a pulse laser to generate a cavitation bubble in said first fluid, wherein the cavitation bubble imparts a sufficient velocity to a portion of the first fluid to thereby move a controlled volume of said second fluid that is operatively coupled to the first fluid into the third fluid stream to form a controlled volume droplet in said third fluid stream; wherein the controlled volume of the second fluid is about 1 microliter or less; and wherein the cavitation bubble has a duration of about 1 millisecond or less; and wherein the cavitation bubble is generated by irradiation of a volume of the first fluid with the pulse laser.
An allowable value setting device for setting an allowable value of a deviation amount between a target pickup position and an actual pickup position in a component when the component is picked up by a suction nozzle, the device comprising: a first setting section configured to set a first allowable value, which is the allowable value for each component type of the component to be mounted on a board; and a second setting section configured to set a second allowable value, which is the allowable value that is set for each mounting coordinate of the component and smaller than the first allowable value of the component of the same component type set by the first setting section, the second allowable value being preferentially adopted over the first allowable value in a suction process of the component; characterized in that the second setting section is further configured to set or not to set the second allowable value for each mounting coordinate. a first setting section configured to set a first allowable value, which is the allowable value for each component type of the component to be mounted on a board; and a second setting section configured to set a second allowable value, which is the allowable value that is set for each mounting coordinate of the component and smaller than the first allowable value of the component of the same component type set by the first setting section, the second allowable value being preferentially adopted over the first allowable value in a suction process of the component; characterized in that the second setting section is further configured to set or not to set the second allowable value for each mounting coordinate.
Catalyst for electrochemical oxygen reduction comprising a noble metal sulphide supported on active carbon, characterised in that the noble metal sulphide particles are monodispersed on the active carbon particles and the surface area ratio of noble metal sulphide particles to active carbon particles is at least 0.20.
A device for creating a spatial dose distribution in a medium volume, comprising: - a laser system producing laser pulses with a pulse length shorter than 50 fs and capable to be focused to peak intensities greater than 10^18 W/cm^2; - a plurality of electron sources, each capable of releasing a plurality of high-energy quasi-monoenergetic electron pulses upon irradiation with said laser pulses, the electrons having an energy greater than 100 MeV, said high-energy electron pulses propagating into the medium volume; - a control unit comprising a storage means in which data is stored comprising a dose pattern and/or an electron fluence pattern and/or a light pattern, and said control unit being capable to adjust the light paths (52, 56,58) of at least some of the laser pulses, in such a way that high-energy electron pulses are emitted from the irradiated electron sources on different trajectories (20, 60, 62) through the medium volume thereby depositing their dose in the medium volume according to said provided pattern; and - a switching means for distributing laser pulses onto said light paths (52,56,58). - a laser system producing laser pulses with a pulse length shorter than 50 fs and capable to be focused to peak intensities greater than 10^18 W/cm^2; - a plurality of electron sources, each capable of releasing a plurality of high-energy quasi-monoenergetic electron pulses upon irradiation with said laser pulses, the electrons having an energy greater than 100 MeV, said high-energy electron pulses propagating into the medium volume; - a control unit comprising a storage means in which data is stored comprising a dose pattern and/or an electron fluence pattern and/or a light pattern, and said control unit being capable to adjust the light paths (52, 56,58) of at least some of the laser pulses, in such a way that high-energy electron pulses are emitted from the irradiated electron sources on different trajectories (20, 60, 62) through the medium volume thereby depositing their dose in the medium volume according to said provided pattern; and - a switching means for distributing laser pulses onto said light paths (52,56,58).
A radar module comprising a substrate with a plane antenna formed on a surface of the substrate, a lens having one end face that is plane and another end face that is spherical, wherein a plane side of the lens is disposed to contact the plane antenna, and a spherical side of the lens is disposed in a remote field of the plane antenna, and a feeder (51A, 51B) connected to the plane antenna is formed on the same surface of the substrate on which the plane antenna is formed, characterized in that: the feeder has a first part and a second part having different widths, a connection interface between the first part and the second part is disposed at a same position as a border of the lens, wherein the first part is closer to the plane antenna than the second part and a width of the first part is smaller than a width of the second part, wherein the substrate has a stepped structure formed of a cavity structure having a size substantially same as a periphery of the lens, and the cavity structure surrounds the plane antenna, and wherein the stepped structure further has a groove structure opening an upper part of the feeder (51A, 51B) connected to the plane antenna. a lens having one end face that is plane and another end face that is spherical, wherein a plane side of the lens is disposed to contact the plane antenna, and a spherical side of the lens is disposed in a remote field of the plane antenna, and a feeder (51A, 51B) connected to the plane antenna is formed on the same surface of the substrate on which the plane antenna is formed, the feeder has a first part and a second part having different widths, a connection interface between the first part and the second part is disposed at a same position as a border of the lens, wherein the first part is closer to the plane antenna than the second part and a width of the first part is smaller than a width of the second part, wherein the substrate has a stepped structure formed of a cavity structure having a size substantially same as a periphery of the lens, and the cavity structure surrounds the plane antenna, and wherein the stepped structure further has a groove structure opening an upper part of the feeder (51A, 51B) connected to the plane antenna.
A method for receiving a signal by a communication apparatus (120, 130) in a wireless communication system, the method comprising: receiving a reference signal, RS, from a base station, BS, (110, 110a, 110b) in a subframe having a first slot and a second slot, wherein each of the first and second slots includes a plurality of consecutive resource elements over which the RS is allowed to be spread, and the plurality of consecutive resource elements overlaps a last Orthogonal Frequency Division Multiplexing, OFDM, symbol of a corresponding slot, and the plurality of consecutive resource elements are consecutive in a time domain in each of the first and second slots, and wherein, when a last OFDM symbol of the subframe is not available for transmission from the BS to the communication apparatus, the RS is received only in the first slot of the subframe and a data signal is received in at least part of the plurality of consecutive resource elements in the second slot. receiving a reference signal, RS, from a base station, BS, (110, 110a, 110b) in a subframe having a first slot and a second slot, wherein each of the first and second slots includes a plurality of consecutive resource elements over which the RS is allowed to be spread, and the plurality of consecutive resource elements overlaps a last Orthogonal Frequency Division Multiplexing, OFDM, symbol of a corresponding slot, and the plurality of consecutive resource elements are consecutive in a time domain in each of the first and second slots, and wherein, when a last OFDM symbol of the subframe is not available for transmission from the BS to the communication apparatus, the RS is received only in the first slot of the subframe and a data signal is received in at least part of the plurality of consecutive resource elements in the second slot.
Single-piece optical vehicle part (100; 200) comprising: - a plurality of entrance dioptric interfaces (111, 121, 131; 80, 81, 82, 84) and/or a plurality of exit dioptric interfaces (122, 132); - at least one junction (90, 91, 92, 93) between two adjacent entrance dioptric interfaces (80, 81, 82, 83) and/or at least one junction between two adjacent exit dioptric interfaces (122, 132); the single-piece optical part (100; 200) being characterized in that the junction (90, 91, 92, 93) between two adjacent entrance dioptric interfaces (80, 81, 82, 83) and/or the junction between two adjacent exit dioptric interfaces (122, 132) has a structural modification (7, 73; 70, 71, 72) allowing light to be absorbed and/or scattered, and in that the structural modification (7, 73; 70, 71, 72) is produced by laser. - a plurality of entrance dioptric interfaces (111, 121, 131; 80, 81, 82, 84) and/or a plurality of exit dioptric interfaces (122, 132); - at least one junction (90, 91, 92, 93) between two adjacent entrance dioptric interfaces (80, 81, 82, 83) and/or at least one junction between two adjacent exit dioptric interfaces (122, 132);
A lawnmower comprising: a seat configured to receive a lawnmower operator; a mower deck having one or more cutting implements and a discharge chute; a bagging system in fluid communication with the discharge chute through a tube; a frame; and fairings coupled with the frame, wherein the lawnmower has a first configuration when the tube is coupled to the lawnmower, wherein the lawnmower has a second configuration when the tube is not coupled to the lawnmower, wherein the tube is disposed at a lateral side of the lawnmower in the first configuration, characterized in that at least one of the fairings is removably coupled to the frame and in the first configuration at least one of the fairings is removed from the frame, wherein the lawnmower defines a maximum lateral width in a lateral direction, and wherein the lateral width is less than 96,52 cm (38 inches) in both the first configuration and the second configuration. a seat configured to receive a lawnmower operator; a mower deck having one or more cutting implements and a discharge chute; a bagging system in fluid communication with the discharge chute through a tube; a frame; and fairings coupled with the frame, wherein the lawnmower has a first configuration when the tube is coupled to the lawnmower, wherein the lawnmower has a second configuration when the tube is not coupled to the lawnmower, wherein the tube is disposed at a lateral side of the lawnmower in the first configuration, characterized in that at least one of the fairings is removably coupled to the frame and in the first configuration at least one of the fairings is removed from the frame, wherein the lawnmower defines a maximum lateral width in a lateral direction, and wherein the lateral width is less than 96,52 cm (38 inches) in both the first configuration and the second configuration.
An apparatus comprising: a transducer configured to generate sound, wherein the transducer comprises at least one frame member, a diaphragm and a surround connecting the diaphragm to the at least one frame member, where the surround provides spring functionality for the diaphragm and is configured to allow the diaphragm to move relative to the at least one frame member with a substantially pistonic motion, where the surround is electrically conductive and where the surround circumferences the diaphragm for electrostatic discharge protection and a conductive path is provided from the surround through a magnet assembly of the transducer to provide an electrical connectivity to a ground.
A method for imaging and positioning of a medical imaging device, comprising: obtaining a virtual human body model corresponding to an imaging object and first position information input by a user; determining, based on the first position information, an internal human body image corresponding to the first position information in the virtual human body model, and displaying the internal human body image; determining, based on the first position information, a target imaging position corresponding to the medical imaging device if the internal human body image corresponding to the first position information corresponds to a target photography position; if the internal human body image corresponding to the first position information does not correspond to the target photography position, proceeding to obtain second position information different from the first position information and determining the target imaging position corresponding to the medical imaging device based on an internal human body image corresponding to the second position information. obtaining a virtual human body model corresponding to an imaging object and first position information input by a user; determining, based on the first position information, an internal human body image corresponding to the first position information in the virtual human body model, and displaying the internal human body image; determining, based on the first position information, a target imaging position corresponding to the medical imaging device if the internal human body image corresponding to the first position information corresponds to a target photography position; if the internal human body image corresponding to the first position information does not correspond to the target photography position, proceeding to obtain second position information different from the first position information and determining the target imaging position corresponding to the medical imaging device based on an internal human body image corresponding to the second position information.
A protection bodice comprising: - two lateral sides configured to protect lateral areas of a user's chest; - a bib configured to protect a frontal area of the user's chest and having opposing side end portions at least partially superimposed on respective frontal edge portions of the lateral sides in such a way as to define two distinct superimposing areas (A1, A2) between the bib and the lateral sides, said frontal edge portions being arranged, in use, between the user and the side end portions; - a connection device configured to connect the bib to the two lateral sides and comprising first connection elements fastened to the bib and second connection elements fastened to the lateral sides, characterized by said first and second connection elements (4a, 4b) being slidably constrained to each other to allow a mutual sliding of the lateral sides in relation to the bib in such a way as to modify the two superimposing areas (A1, A2); - an adjusting device configured to translate the lateral sides approaching or moving away from each other in relation to the bib, in such a way as to adjust the distance between the frontal edge portions of the lateral sides. - two lateral sides configured to protect lateral areas of a user's chest; - a bib configured to protect a frontal area of the user's chest and having opposing side end portions at least partially superimposed on respective frontal edge portions of the lateral sides in such a way as to define two distinct superimposing areas (A1, A2) between the bib and the lateral sides, said frontal edge portions being arranged, in use, between the user and the side end portions; - a connection device configured to connect the bib to the two lateral sides and comprising first connection elements fastened to the bib and second connection elements fastened to the lateral sides, characterized by said first and second connection elements (4a, 4b) being slidably constrained to each other to allow a mutual sliding of the lateral sides in relation to the bib in such a way as to modify the two superimposing areas (A1, A2); - an adjusting device configured to translate the lateral sides approaching or moving away from each other in relation to the bib, in such a way as to adjust the distance between the frontal edge portions of the lateral sides.
Fluid-actuated diaphragm drive, with an actuator housing which has two actuator housing sections (15, 16) placed axially one against the other in a joining area by jointly bounding a housing interior, wherein there is mounted in the housing interior a drive diaphragm separating two axially adjacent working chambers (13, 14) from one another with fluid-tightness and coupled to an output member for driving purposes, and which is axially deflectable by means of fluidic pressurisation, which may be controlled by a control passage structure formed at least partly in the actuator housing, of at least one of the working chambers (13, 14) in order to generate an output movement of the output member, characterised in that the drive diaphragm is clamped at its outer edge section with all-round sealing axially between insert bodies (24, 25) which are separate from the actuator housing and are each inserted in one of the two actuator housing sections (15, 16), and form a peripheral wall section, adjoining the drive diaphragm, of the respectively assigned working chamber (13, 14), wherein a seal structure is provided between at least one of the insert bodies (24, 25) and the actuator housing.