mhurhangee/ep-ind-claims huggingface dataset:
A device for detecting gases and vapors is shaped as a casing which comprises within it at least one gases and vapors detection unit, characterized in that said casing further comprises, within it: - at least one tank containing at least one test gas; - at least one means for releasing the test gas (12,13,14,19,21) contained in the tank into a determined space of the device; - at least one control unit arranged to cause the release of a determined quantity of test gas into the space determined by the said release means (12,13,14,19,21) and to carry out a measurement of the test gas detected by the detection unit in said determined space; the determined space in which the test gas is released, is located opposite to the detection unit, the device being configured so that the distance travelled by the test gas between the tank configured to contain the test gas and the detection unit is at most 30mm. - at least one tank containing at least one test gas; - at least one means for releasing the test gas (12,13,14,19,21) contained in the tank into a determined space of the device; - at least one control unit arranged to cause the release of a determined quantity of test gas into the space determined by the said release means (12,13,14,19,21) and to carry out a measurement of the test gas detected by the detection unit in said determined space;
A work vehicle comprising: a pair of left and right front wheels provided at a front portion of a traveling vehicle body; a pair of left and right rear wheels provided at a rear portion of the traveling vehicle body; and a work machine provided on a lower surface of the traveling vehicle body, wherein a hood is provided at the front portion of the traveling vehicle body, and a control portion on which an operator rides is provided at a rear side of the hood, a first electric motor configured to drive the rear wheels and a second electric motor configured to drive the work machine are provided on a lower rear side of a control seat of the control portion, a battery configured to store electric power supplied to the first electric motor and the second electric motor is provided in a space formed by the hood, and a first output shaft of the first electric motor is provided along a left-right direction, and a second output shaft of the second electric motor is provided along a front-rear direction, characterized in that a gear box configured to transmit an output rotation of the first output shaft to a lower drive shaft is provided on one side of the first electric motor, the rear wheels and the gear box are coupled by the lower drive shaft, and the second electric motor is provided below the first electric motor, and the second output shaft is provided above the lower drive shaft. a pair of left and right front wheels provided at a front portion of a traveling vehicle body; a pair of left and right rear wheels provided at a rear portion of the traveling vehicle body; and a work machine provided on a lower surface of the traveling vehicle body, wherein a hood is provided at the front portion of the traveling vehicle body, and a control portion on which an operator rides is provided at a rear side of the hood, a first electric motor configured to drive the rear wheels and a second electric motor configured to drive the work machine are provided on a lower rear side of a control seat of the control portion, a battery configured to store electric power supplied to the first electric motor and the second electric motor is provided in a space formed by the hood, and a first output shaft of the first electric motor is provided along a left-right direction, and a second output shaft of the second electric motor is provided along a front-rear direction, characterized in that a gear box configured to transmit an output rotation of the first output shaft to a lower drive shaft is provided on one side of the first electric motor, the rear wheels and the gear box are coupled by the lower drive shaft, and the second electric motor is provided below the first electric motor, and the second output shaft is provided above the lower drive shaft.
A block copolymer comprising a polyethylene glycol segment connected with a polyamino acid derivative segment including an aspartic acid derivative and/or a glutamic acid derivative, and the polyamino acid derivative segment having a physiologically active substance with a hydroxyl group linked through a bond or a linking group having a carboxyl group to a side chain carboxyl group of the derivative, wherein the hydroxyl group of the physiologically active substance forms an ester bond with the side chain carboxyl group of the derivative or the carboxyl group included in the linking group, wherein the molecular weight of the block copolymer is from 2 kilodaltons to 15 kilodaltons, and the light scattering intensity of a 1 mg/mL aqueous solution of the block copolymer as measured with a laser light scattering photometer under the measurement conditions of a measurement temperature of 25°C, a scattering angle of 90°, and a wavelength of 632.8 nm, is at least twice or more the light scattering intensity of toluene measured under the same measurement conditions, wherein the polyamino acid derivative segment is constructed from aspartic acid and/or glutamic acid, wherein the mass content of the polyethylene glycol segment in the block copolymer is from 10% by mass to 80% by mass, wherein the mass content of the physiologically active substance having the hydroxyl group in the block copolymer is from 10% by mass to 60% by mass, and wherein the physiologically active substance with a hydroxyl group is one or more physiologically active substances selected from the group consisting of a camptothecin derivative, a taxane derivative, a resorcinol derivative, an anthracycline derivative, a rapamycin derivative, a cytidine-based antimetabolite, a folic acid antimetabolite, a purine-based antimetabolite, a fluorinated pyrimidine-based antimetabolite, a platinum derivative, a mitomycin derivative, a bleomycin derivative, a vinca alkaloid derivative, a podophyllotoxin derivative, a halichondrin derivative, a staurosporine derivative, a thalidomide derivative, a vitamin A derivative, a combretastatin derivative, an antiandrogen agent, an antiestrogen agent, a hormone agent, a tacrolimus derivative, a steroid derivative, a polyene-based antibiotic substance, an azole-based derivative, a candin-based derivative, and a pyrimidine derivative.
An AA5xxx or AA6xxx aluminum alloy intermediate metal product, comprising: a primary phase of solid aluminum formed by cooling liquid metal in a continuous casting device at a strip thickness of 7 mm - 50 mm; and a secondary phase including an alloying element, wherein the secondary phase is spheroidized by hot rolling the primary phase and secondary phase at a reduction of section of less than 70% and, wherein the secondary phase is further spheroidized by sustaining a peak metal temperature in the primary phase and the secondary phase that is approximately 15 °C - 45 °C below a solidus temperature of the metal product, wherein the peak metal temperature is sustained for a duration of approximately 1-3 minutes prior to the hot rolling. a primary phase of solid aluminum formed by cooling liquid metal in a continuous casting device at a strip thickness of 7 mm - 50 mm; and a secondary phase including an alloying element, wherein the secondary phase is spheroidized by hot rolling the primary phase and secondary phase at a reduction of section of less than 70% and, wherein the secondary phase is further spheroidized by sustaining a peak metal temperature in the primary phase and the secondary phase that is approximately 15 °C - 45 °C below a solidus temperature of the metal product, wherein the peak metal temperature is sustained for a duration of approximately 1-3 minutes prior to the hot rolling.
A computing node (110;112;114;116) of a cluster computing device to bridge between a course-grained load balancing scheme and a fine-grained load balancing scheme used to distribute incoming network traffic between computing nodes of the cluster computing device, the computing node comprising: a memory having (i) a local flow table to store a plurality of network flow entries and (ii) a local next hop table to store forwarding information for one or more of the plurality of network flow entries; and a flow management module to (i) receive network flow information from a network controller, (ii) add a first network flow entry to the local flow table based on the network flow information received from the network controller, (iii) generate a multicast network packet comprising the network flow information received from the network controller and an internet protocol address associated with the computing node, and (iv) transmit the multicast network packet to each other computing node (110;112;114;116) of the cluster computing device to facilitate the addition of a second network flow entry to a local flow table of each other computing node and a next hop entry to a local next hop table of each other computing node based on the multicast network packet. a memory having (i) a local flow table to store a plurality of network flow entries and (ii) a local next hop table to store forwarding information for one or more of the plurality of network flow entries; and a flow management module to (i) receive network flow information from a network controller, (ii) add a first network flow entry to the local flow table based on the network flow information received from the network controller, (iii) generate a multicast network packet comprising the network flow information received from the network controller and an internet protocol address associated with the computing node, and (iv) transmit the multicast network packet to each other computing node (110;112;114;116) of the cluster computing device to facilitate the addition of a second network flow entry to a local flow table of each other computing node and a next hop entry to a local next hop table of each other computing node based on the multicast network packet.
A power line communications device, comprising a USB interface, a protocol conversion module, a first signal conversion module, a coupler, and a power line interface, wherein a first end of the USB interface is connected to a first end of the protocol conversion module, a second end of the protocol conversion module is connected to a first end of the first signal conversion module, a second end of the first signal conversion module is connected to a first end of the coupler, and a second end of the coupler is connected to a first end of the power line interface; the power line interface is configured to: connect to a power line, receive a first electrical signal sent by the power line, and send the first electrical signal to the coupler; the coupler is configured to: obtain a second electrical signal from the first electrical signal, and send the second electrical signal to the first signal conversion module, wherein the second electrical signal is an electrical signal in a preset frequency band; the first signal conversion module is configured to: convert the second electrical signal into a first network signal, and send the first network signal to the protocol conversion module; the protocol conversion module is configured to: convert the first network signal of an Ethernet protocol into a first network signal of a USB protocol, and send the converted first network signal to the USB interface; and the USB interface is configured to: connect to a terminal device by using a data cable, and send the converted first network signal to the terminal device, so as to trigger the terminal device to access a network by using the converted first network signal.
A method to prepare a template for sequencing the L10 codon of the HIV protease gag gene comprising the steps of: providing a polynucleotide template having refractory region upstream of a target region to be sequenced; hybridizing to the polynucleotide template an oligonucleotide forward primer of SEQ ID NO: 8,9, 11, 12 or 13; initiating polymerase-catalyzed DNA synthesis, thereby producing a second replicate polynucleotide template comprising the above oligonucleotide forward primer, for use in a subsequent sequencing reaction. providing a polynucleotide template having refractory region upstream of a target region to be sequenced; hybridizing to the polynucleotide template an oligonucleotide forward primer of SEQ ID NO: 8,9, 11, 12 or 13; initiating polymerase-catalyzed DNA synthesis, thereby producing a second replicate polynucleotide template comprising the above oligonucleotide forward primer, for use in a subsequent sequencing reaction.
A wireless power receiver being configured to receive wirelessly power from a wireless power transmitter, the wireless power receiver comprising: a short-range communication antenna for performing short-range communication; a receiving coil for wirelessly receiving power from the wireless power transmitter; wherein the short-range communication antenna surrounds the receiving coil, a controller for changing an operating mode of the wireless power receiver into a charging mode, wherein in the charging mode the wireless power receiver receives power from a transmitting coil, whereby the controller is configured to determine whether the amount of power received at the wireless power receiver is more than a threshold value, characterized in that the controller is configured to terminate the charging mode when the amount of power has the threshold value or above, and further comprising a protecting unit for changing a current flowing direction when a current flowing through the short-range communication antenna is equal to or greater than a threshold current value. a short-range communication antenna for performing short-range communication; a receiving coil for wirelessly receiving power from the wireless power transmitter; wherein the short-range communication antenna surrounds the receiving coil, a controller for changing an operating mode of the wireless power receiver into a charging mode, wherein in the charging mode the wireless power receiver receives power from a transmitting coil, whereby the controller is configured to determine whether the amount of power received at the wireless power receiver is more than a threshold value, characterized in that the controller is configured to terminate the charging mode when the amount of power has the threshold value or above, and further comprising a protecting unit for changing a current flowing direction when a current flowing through the short-range communication antenna is equal to or greater than a threshold current value.
A surgical instrument holding device comprising: an adapter from which a surgical instrument is detachable; a separator from which the adapter is detachable; a holding body from which the separator is detachable; a driving body configured to support the holding body in a rotatable manner and apply a driving force to the holding body; and wherein the driving body includes a driving force transmitting mechanism configured to transmit the driving force to the holding body characterized in that the driving body includes a bracket by which the driving force transmitting mechanism is supported, characterised by a detecting mechanism configured to detect a state of attachment of the separator to the holding body and a state of attachment of the adapter to the separator, and in that the detecting mechanism is disposed on the bracket. an adapter from which a surgical instrument is detachable; a separator from which the adapter is detachable; a holding body from which the separator is detachable; a driving body configured to support the holding body in a rotatable manner and apply a driving force to the holding body; and wherein the driving body includes a driving force transmitting mechanism configured to transmit the driving force to the holding body characterized in that the driving body includes a bracket by which the driving force transmitting mechanism is supported, characterised by a detecting mechanism configured to detect a state of attachment of the separator to the holding body and a state of attachment of the adapter to the separator, and in that the detecting mechanism is disposed on the bracket.
An optical device (200, 300), comprising: a steering element; and a narrowband optical filter to, receive a beam of light at a selected angle of incidence, wherein the beam of light is caused to be received by the narrowband optical filter at the selected angle of incidence by the steering element; and output a filtered beam of light associated with the beam of light, wherein a wavelength of the filtered beam of light depends on the selected angle of incidence of the beam of light on the narrowband optical filter; and a photodiode to receive at least a portion of the filtered beam of light after the filtered beam of light is outputted by the narrowband optical filter; characterised in that the steering element comprises: a micro-electro-mechanical system (MEMS) mirror, and a curved reflective optical element; wherein the MEMS mirror includes a movable mirror to reflect a beam of light to the curved reflective optical element, and the curved reflective optical element being to direct the beam of light to the narrowband optical filter. a steering element; and a narrowband optical filter to, receive a beam of light at a selected angle of incidence, wherein the beam of light is caused to be received by the narrowband optical filter at the selected angle of incidence by the steering element; and output a filtered beam of light associated with the beam of light, wherein a wavelength of the filtered beam of light depends on the selected angle of incidence of the beam of light on the narrowband optical filter; and receive a beam of light at a selected angle of incidence, wherein the beam of light is caused to be received by the narrowband optical filter at the selected angle of incidence by the steering element; and output a filtered beam of light associated with the beam of light, wherein a wavelength of the filtered beam of light depends on the selected angle of incidence of the beam of light on the narrowband optical filter; and a photodiode to receive at least a portion of the filtered beam of light after the filtered beam of light is outputted by the narrowband optical filter; characterised in that the steering element comprises: a micro-electro-mechanical system (MEMS) mirror, and a curved reflective optical element; wherein the MEMS mirror includes a movable mirror to reflect a beam of light to the curved reflective optical element, and the curved reflective optical element being to direct the beam of light to the narrowband optical filter. wherein the MEMS mirror includes a movable mirror to reflect a beam of light to the curved reflective optical element, and the curved reflective optical element being to direct the beam of light to the narrowband optical filter.
A slice information usage method, wherein the method is performed by a terminal, and the method comprises: when first frequency point priority information and second frequency point priority information are different, using (501, 603) the second frequency point priority information, or ignoring the first frequency point priority information, or updating the first frequency point priority information according to the second frequency point priority information, wherein the first frequency point priority information and second frequency point priority information correspond to the same network slice; wherein the first frequency point priority information is frequency point priority information saved by the terminal for the network slice, and the second frequency point priority information is frequency point priority information indicated or configured by a network side for the network slice; wherein the method further comprises: receiving, by the terminal, slice information indicated or configured by a network device, wherein the slice information comprises the second frequency point priority information and further comprises at least one of: a slice identity corresponding to the network slice; and frequency point information corresponding to the network slice. when first frequency point priority information and second frequency point priority information are different, using (501, 603) the second frequency point priority information, or ignoring the first frequency point priority information, or updating the first frequency point priority information according to the second frequency point priority information, wherein the first frequency point priority information and second frequency point priority information correspond to the same network slice; wherein the first frequency point priority information is frequency point priority information saved by the terminal for the network slice, and the second frequency point priority information is frequency point priority information indicated or configured by a network side for the network slice; wherein the method further comprises: receiving, by the terminal, slice information indicated or configured by a network device, wherein the slice information comprises the second frequency point priority information and further comprises at least one of: a slice identity corresponding to the network slice; and frequency point information corresponding to the network slice. receiving, by the terminal, slice information indicated or configured by a network device, wherein the slice information comprises the second frequency point priority information and further comprises at least one of: a slice identity corresponding to the network slice; and frequency point information corresponding to the network slice.
Test environment for testing test objects, the test environment having: a first test case implementation unit and a second test case implementation unit; a first test object and a second test object; a connection mechanism which is designed to selectively couple the first test case implementation unit or the second test case implementation unit to the first test object and/or to the second test object; wherein the test environment is designed such that at least the first test case implementation unit can be coupled to the first test object or to the second test object for implementing a test case; characterized in that the test environment also has: a plurality of simulation hardware units which are controlled by the test objects during a test case; wherein each of the plurality of simulation hardware units can be selectively coupled to a test object via the connection mechanism. a first test case implementation unit and a second test case implementation unit; a first test object and a second test object; a connection mechanism which is designed to selectively couple the first test case implementation unit or the second test case implementation unit to the first test object and/or to the second test object; wherein the test environment is designed such that at least the first test case implementation unit can be coupled to the first test object or to the second test object for implementing a test case; characterized in that the test environment also has: a plurality of simulation hardware units which are controlled by the test objects during a test case; wherein each of the plurality of simulation hardware units can be selectively coupled to a test object via the connection mechanism. a plurality of simulation hardware units which are controlled by the test objects during a test case; wherein each of the plurality of simulation hardware units can be selectively coupled to a test object via the connection mechanism.
A transformant for weight loss and blood lipid reduction, wherein the transformant is obtained by replacing L.lactis thyA gene with codon-optimized human oxyntomodulin gene through homologous recombination.