mhurhangee/ep-ind-claims huggingface dataset:
A working vehicle comprising: a running vehicle body; a floor provided on the running vehicle body and serving as a floor surface of an operation part in which a driver is located; a floor bracket configured to support the floor; a fuel tank provided below the floor; and a pedal configured to move the running vehicle body forward or backward and comprising pivot shafts (142a, 142b) provided on the floor bracket between the floor and the fuel tank. a running vehicle body; a floor provided on the running vehicle body and serving as a floor surface of an operation part in which a driver is located; a floor bracket configured to support the floor; a fuel tank provided below the floor; and a pedal configured to move the running vehicle body forward or backward and comprising pivot shafts (142a, 142b) provided on the floor bracket between the floor and the fuel tank.
A machine-readable storage medium storing executable program instructions which when executed by a data processing system cause the data processing system to perform a method comprising: receiving, by a graphic engine, an instruction from a layout engine to draw a glyph of a font; retrieving a set of glyph metrics of a glyph and an empty vector list associated with the glyph from a font file, the font file being stored in a computer-readable storage medium; causing the graphic engine to set aside a blank region at a predetermined location on a printing medium based on the empty vector list, the blank region corresponding to the empty vector list; retrieving graphic image data of the glyph from the font file; and causing the graphic engine to draw an image of the glyph in the blank region on the printing medium according to the graphic image data. receiving, by a graphic engine, an instruction from a layout engine to draw a glyph of a font; retrieving a set of glyph metrics of a glyph and an empty vector list associated with the glyph from a font file, the font file being stored in a computer-readable storage medium; causing the graphic engine to set aside a blank region at a predetermined location on a printing medium based on the empty vector list, the blank region corresponding to the empty vector list; retrieving graphic image data of the glyph from the font file; and causing the graphic engine to draw an image of the glyph in the blank region on the printing medium according to the graphic image data.
A method for receiving scheduling information by a terminal (130, 421) in a wireless communication system, the method comprising: receiving first scheduling information from a first base station (110, 411) through a first scheduling channel; and receiving second scheduling information from each of one or more second base stations (413, 415, 417) cooperating with the first base station (110, 411) through one or more second scheduling channels (733, 735, 737) by using one or more reception beams (531, 533, 535, 537); wherein the first scheduling channel is determined from resources on a control region of a downlink, DL, subframe, and each of the one or more second scheduling channels (733, 735, 737) is determined from resources on a data region of the DL subframe, and wherein each of the one or more second scheduling channels has a different position in at least one of a time domain and a frequency domain of the data region based on reception performance of the one or more reception beams (531, 533, 535, 537). receiving first scheduling information from a first base station (110, 411) through a first scheduling channel; and receiving second scheduling information from each of one or more second base stations (413, 415, 417) cooperating with the first base station (110, 411) through one or more second scheduling channels (733, 735, 737) by using one or more reception beams (531, 533, 535, 537); wherein the first scheduling channel is determined from resources on a control region of a downlink, DL, subframe, and each of the one or more second scheduling channels (733, 735, 737) is determined from resources on a data region of the DL subframe, and wherein each of the one or more second scheduling channels has a different position in at least one of a time domain and a frequency domain of the data region based on reception performance of the one or more reception beams (531, 533, 535, 537).
A corona discharge component, comprising: an ionization discharge chamber, wherein the ionization discharge chamber comprises a metal corona cylinder, and the metal corona cylinder is provided with a to-be-analyzed gas inlet and an ion outlet which forms a non-uniform electric field with corona pins and is provided with a circular hole at the center; and characterised by: a rotating shaft insulatively mounted on the cylinder wall of the metal corona cylinder, the rotating shaft is vertical to the axial line of the metal corona cylinder, and a turntable having multiple corona pins at the outer edge is installed at the end part of the rotating shaft, the axial line of the metal corona cylinder passes in parallel through the rotation plane of the turntable; wherein a closed metal shielding cylinder is arranged inside the metal corona cylinder, and the metal shielding cylinder includes a trumpet-shaped focusing electrode configured to form a gathered static electric field. an ionization discharge chamber, wherein the ionization discharge chamber comprises a metal corona cylinder, and the metal corona cylinder is provided with a to-be-analyzed gas inlet and an ion outlet which forms a non-uniform electric field with corona pins and is provided with a circular hole at the center; and characterised by: a rotating shaft insulatively mounted on the cylinder wall of the metal corona cylinder, the rotating shaft is vertical to the axial line of the metal corona cylinder, and a turntable having multiple corona pins at the outer edge is installed at the end part of the rotating shaft, the axial line of the metal corona cylinder passes in parallel through the rotation plane of the turntable; wherein a closed metal shielding cylinder is arranged inside the metal corona cylinder, and the metal shielding cylinder includes a trumpet-shaped focusing electrode configured to form a gathered static electric field. a rotating shaft insulatively mounted on the cylinder wall of the metal corona cylinder, the rotating shaft is vertical to the axial line of the metal corona cylinder, and a turntable having multiple corona pins at the outer edge is installed at the end part of the rotating shaft, the axial line of the metal corona cylinder passes in parallel through the rotation plane of the turntable; wherein a closed metal shielding cylinder is arranged inside the metal corona cylinder, and the metal shielding cylinder includes a trumpet-shaped focusing electrode configured to form a gathered static electric field.
A control apparatus for a rotary electric machine of a vehicle, the vehicle being equipped with a drivetrain for transmitting power output from the rotary electric machine to a driving wheel, the control apparatus comprising: a filter processor (32c, 32e) that filters target torque for the rotary electric machine to suppress a vibrational frequency component of the drivetrain using a filter having a frequency transfer characteristic; a controller (32c1) that performs drive control of the rotary electric machine according to the filtered target torque; a parameter calculator that calculates, according to a running condition of the vehicle including an accelerator operation stroke (Acc), a brake operated stroke (Brk), and/or a running speed, an attenuation parameter (Attr) representing a request value for responsivity of output torque of the rotary electric machine with respect to the target torque, wherein the attenuation parameter (Attr) decreases with an increase of the request value for responsivity of output torque of the rotary electric machine; and a variable setter (32b, 32d) that variably sets the frequency transfer characteristic of the filter according to the attenuation parameter (Attr), to decrease a degree of attenuation of the vibrational frequency component of the drivetrain with an increase of the request value for the responsivity of the output torque. a filter processor (32c, 32e) that filters target torque for the rotary electric machine to suppress a vibrational frequency component of the drivetrain using a filter having a frequency transfer characteristic; a controller (32c1) that performs drive control of the rotary electric machine according to the filtered target torque; a parameter calculator that calculates, according to a running condition of the vehicle including an accelerator operation stroke (Acc), a brake operated stroke (Brk), and/or a running speed, an attenuation parameter (Attr) representing a request value for responsivity of output torque of the rotary electric machine with respect to the target torque, wherein the attenuation parameter (Attr) decreases with an increase of the request value for responsivity of output torque of the rotary electric machine; and a variable setter (32b, 32d) that variably sets the frequency transfer characteristic of the filter according to the attenuation parameter (Attr), to decrease a degree of attenuation of the vibrational frequency component of the drivetrain with an increase of the request value for the responsivity of the output torque.
A hot and cold water delivery apparatus comprising a water delivery device and a hose having a first channel for carrying hot water during use, and a second channel for carrying cold water during use, wherein one end of said hose is connectable both to a source of hot water and a source of cold water, the other end of the hose being connected to a water delivery device, the water delivery device having a first port connected to said first channel and a second port connected to said second channel, characterised in that the water delivery device comprises a water dispensing nozzle including means for mixing, in use, water received from said first and second channels, and means for dispensing the mixed water, and in that said first and second channels are formed by a dividing wall running longitudinally of the hose, and are located side-by-side running along substantially the entire length of the hose, and in that said first and second ports are each provided in a respective plug (121, 123), each plug being adapted to fit into a respective one of said first and second channels, wherein said plugs are mutually spaced apart to define a gap therebetween, the gap being shaped and dimensioned to receive said dividing wall. and in that said first and second channels are formed by a dividing wall running longitudinally of the hose, and are located side-by-side running along substantially the entire length of the hose, and in that said first and second ports are each provided in a respective plug (121, 123), each plug being adapted to fit into a respective one of said first and second channels, wherein said plugs are mutually spaced apart to define a gap therebetween, the gap being shaped and dimensioned to receive said dividing wall.
A spherical osteotomy device, comprising: a quarter hemispherical body having a substantial shape of a spherical triangle, the quarter hemispherical body including an outer surface, an inner surface, a cutting end between the outer surface and the inner surface, an axis extending from the outer surface through the inner surface, and an origin on the axis, the inner surface having a substantially constant radius extending from the origin, the cutting end being one of three arcs forming the substantial shape of the spherical triangle; and a shank extending outwardly from the outer surface of the body substantially aligned with the axis. a quarter hemispherical body having a substantial shape of a spherical triangle, the quarter hemispherical body including an outer surface, an inner surface, a cutting end between the outer surface and the inner surface, an axis extending from the outer surface through the inner surface, and an origin on the axis, the inner surface having a substantially constant radius extending from the origin, the cutting end being one of three arcs forming the substantial shape of the spherical triangle; and a shank extending outwardly from the outer surface of the body substantially aligned with the axis.
A source of light comprising a laser, which operates at or near its fundamental wavelength in the range 1000 nm to 1100 nm and produces pulses of a duration longer than 0.5 ns, and a micro-structured optical fibre, said fibre being arranged to guide said pulses, wherein the light is generated by said pulses in the fibre, said fibre is arranged to support propagation of said pulses in a single transverse mode said fibre has a cladding region comprising an array of holes of diameter d and a hole-to-hole pitch Λ, and has a zero dispersion wavelength, characterised in that the zero dispersion wavelength of the fibre is between 1000 nm and 1100 nm, and said pitch Λ is greater than 2.5 μm and 0.4 < d/Λ < 0.7, such that said source of light has a spectrum of wavelengths extending over more than 700 nm
A method performed on a mobile base station that is configured to support Information Centric Networking, ICN, protocol, and Internet Protocol, IP, the method comprising: storing content for delivery over said ICN protocol in an ICN content cache on said mobile base station; receiving a non-access stratum, NAS, signaling message from a user equipment, UE (100, 101), using either said ICN protocol or IP; and determining which of said ICN transport protocol or said IP transport protocol to use for NAS signaling messages, in response to the determination, forwarding said NAS signaling message to a Mobility Management Entity, MME,, wherein if the NAS message was received using ICN protocol, forwarding is done: using ICN transport, or if ICN transport is not supported between the base station and the MME, forwarding is done using ICN overlaid over IP, and if the NAS message was received using IP protocol, forwarding is done using IP transport. storing content for delivery over said ICN protocol in an ICN content cache on said mobile base station; receiving a non-access stratum, NAS, signaling message from a user equipment, UE (100, 101), using either said ICN protocol or IP; and determining which of said ICN transport protocol or said IP transport protocol to use for NAS signaling messages, in response to the determination, forwarding said NAS signaling message to a Mobility Management Entity, MME,, wherein if the NAS message was received using ICN protocol, forwarding is done: using ICN transport, or if ICN transport is not supported between the base station and the MME, forwarding is done using ICN overlaid over IP, and using ICN transport, or if ICN transport is not supported between the base station and the MME, forwarding is done using ICN overlaid over IP, and if the NAS message was received using IP protocol, forwarding is done using IP transport.
A tufting machine for brooms or brushes, comprising a bristle magazine, a bundle remover, and a tufting tool which is arranged such that it can remove a bristle bundle from the bundle remover in order to press the bristle bundle into a brush body, the bundle remover being provided with at least two bundle receiving notches, and the outer circumference of the bundle remover passing directly in front of an exit of the bristle magazine, and the bundle remover being adjusted in one single direction of motion, characterized in that the bundle remover is formed as a wheel and is adjusted in a rotary motion.
A set of oligonucleotide primers comprising: at least one forward primer and at least one reverse primer, that are operable to hybridize to a non-MAP-specific target nucleic acid sequence that is present in a non-MAP organism and is absent in a MAP organism, the pair of primers operable for simultaneous use in a PCR process for the detection of a non -Mycobacterium avium subsp. paratuberculosis (non-MAP) organism wherein the non-MAP organism is a Mycobacterium avium complex organism that does not belong to Mycobacterium avium subsp. paratuberculosis, wherein the non-MAP-specific target nucleic acid sequence comprise SEQ ID NO:1, SEQ ID. NO: 2, SEQ ID NO: 3, SEQ ID NO: 4, SEQ ID NO: 5, SEQ ID NO: 6, SEQ ID NO: 7, or SEQ ID NO: 8, at least 20 contiguous nucleotide fragments thereof, complements thereof and sequences having at least 90% nucleic acid sequence identity to the foregoing sequences.
An insulated wire, comprising: an insulating film made from a thermosetting resin disposed on a conductor directly or via an insulating layer interposed therebetween, wherein the insulating film made from a thermosetting resin is a layer containing bubbles prepared by baking a varnish of thermosetting resin, and wherein a layer containing no bubbles is formed as an upper or lower layer of the layer containing bubbles, wherein the layer containing no bubbles has a thickness of 1 μm or greater, and wherein the average diameter of the bubbles is 10 μm or less. an insulating film made from a thermosetting resin disposed on a conductor directly or via an insulating layer interposed therebetween, wherein the insulating film made from a thermosetting resin is a layer containing bubbles prepared by baking a varnish of thermosetting resin, and wherein a layer containing no bubbles is formed as an upper or lower layer of the layer containing bubbles, wherein the layer containing no bubbles has a thickness of 1 μm or greater, and wherein the average diameter of the bubbles is 10 μm or less.
A power storage device, comprising: a power storage unit (B1-B16); and an evaluation value acquisition unit, wherein the evaluation value acquisition unit is configured to acquire an evaluation value including at least a first evaluation value corresponding to the power storage unit (B1-B16) in a low-temperature region and a second evaluation value corresponding to the power storage unit (B1-B16) in a high-temperature region, characterized in that the first evaluation value is obtained by multiplying by a first predetermined weighting factor, time obtained by integrating at least one of a charging time and a discharging time of the power storage unit (B1-B16), the second evaluation value is obtained by multiplying by a second predetermined weighting factor, time obtained by integrating at least one of a charging time and a discharging time of the power storage unit, the low-temperature region is less than 10 degC and the high-temperature region is 45degC or more, the predetermined weighting factor is set to be larger as the temperature becomes lower 10 degC or higher 45 degC. a power storage unit (B1-B16); and an evaluation value acquisition unit, wherein the evaluation value acquisition unit is configured to acquire an evaluation value including at least a first evaluation value corresponding to the power storage unit (B1-B16) in a low-temperature region and a second evaluation value corresponding to the power storage unit (B1-B16) in a high-temperature region, characterized in that the first evaluation value is obtained by multiplying by a first predetermined weighting factor, time obtained by integrating at least one of a charging time and a discharging time of the power storage unit (B1-B16), the second evaluation value is obtained by multiplying by a second predetermined weighting factor, time obtained by integrating at least one of a charging time and a discharging time of the power storage unit, the low-temperature region is less than 10 degC and the high-temperature region is 45degC or more, the predetermined weighting factor is set to be larger as the temperature becomes lower 10 degC or higher 45 degC.
A mobile terminal, comprising: a Near Field Communication, NFC, module; and a controller adapted to: set up a first communication link with at least another mobile terminal (200, 300), placed within a specific distance, by using the NFC module, activate a first operation mode based on data obtained through the first communication link, characterized in that the controller is further adapted to: transmit in the first operation mode a handover request message to the at least one another mobile terminal (200, 300) for forming a second communication link between the mobile terminal and the at least another mobile terminal (200, 300); receive a handover selection message from the at least another mobile terminal (200, 300); form the second communication link based on information acquired from the received handover selection message; switch the first operation mode to a second operation mode based on data obtained through the second communication link, and perform data communication in the second operation mode with the at least another mobile terminal (200, 300) through the formed second communication link. a Near Field Communication, NFC, module; and a controller adapted to: set up a first communication link with at least another mobile terminal (200, 300), placed within a specific distance, by using the NFC module, activate a first operation mode based on data obtained through the first communication link, set up a first communication link with at least another mobile terminal (200, 300), placed within a specific distance, by using the NFC module, activate a first operation mode based on data obtained through the first communication link, characterized in that the controller is further adapted to: transmit in the first operation mode a handover request message to the at least one another mobile terminal (200, 300) for forming a second communication link between the mobile terminal and the at least another mobile terminal (200, 300); receive a handover selection message from the at least another mobile terminal (200, 300); form the second communication link based on information acquired from the received handover selection message; switch the first operation mode to a second operation mode based on data obtained through the second communication link, and perform data communication in the second operation mode with the at least another mobile terminal (200, 300) through the formed second communication link. transmit in the first operation mode a handover request message to the at least one another mobile terminal (200, 300) for forming a second communication link between the mobile terminal and the at least another mobile terminal (200, 300); receive a handover selection message from the at least another mobile terminal (200, 300); form the second communication link based on information acquired from the received handover selection message; switch the first operation mode to a second operation mode based on data obtained through the second communication link, and perform data communication in the second operation mode with the at least another mobile terminal (200, 300) through the formed second communication link.