mhurhangee/ep-ind-claims huggingface dataset:
A haulage vehicle provided with a vehicle frame, a vessel tiltably mounted on the vehicle frame, and a hoist cylinder provided between the vehicle frame and the vessel, the hoist cylinder tilting the vessel, the haulage vehicle comprising: a load detector (39A, 39B, 23a) that detects force that acts in an extended or a contracted direction of the hoist cylinder; and an empty load determination unit that determines whether the vessel is empty on the basis of a detection signal from the load detector (39A, 39B, 23a) or not; characterized in that the load detector (39A, 39B, 23a) includes: a first pressure sensor that detects pressure in an oil chamber on a head side of the hoist cylinder; a second pressure sensor that detects pressure in an oil chamber on a rod side of the hoist cylinder; and a differential pressure calculation unit that calculates differential pressure on the basis of values acquired from the first pressure sensor and the second pressure sensor, and the empty load determination unit determines orientation of force that acts in the extended or contracted direction of the hoist cylinder on the basis of a calculation result from the differential pressure calculation unit, and determines that the vessel is empty on the basis of a matter that the orientation of the force converts from a tensile side to a compressive side. a load detector (39A, 39B, 23a) that detects force that acts in an extended or a contracted direction of the hoist cylinder; and an empty load determination unit that determines whether the vessel is empty on the basis of a detection signal from the load detector (39A, 39B, 23a) or not; characterized in that the load detector (39A, 39B, 23a) includes: a first pressure sensor that detects pressure in an oil chamber on a head side of the hoist cylinder; a second pressure sensor that detects pressure in an oil chamber on a rod side of the hoist cylinder; and a differential pressure calculation unit that calculates differential pressure on the basis of values acquired from the first pressure sensor and the second pressure sensor, and a first pressure sensor that detects pressure in an oil chamber on a head side of the hoist cylinder; a second pressure sensor that detects pressure in an oil chamber on a rod side of the hoist cylinder; and a differential pressure calculation unit that calculates differential pressure on the basis of values acquired from the first pressure sensor and the second pressure sensor, and the empty load determination unit determines orientation of force that acts in the extended or contracted direction of the hoist cylinder on the basis of a calculation result from the differential pressure calculation unit, and determines that the vessel is empty on the basis of a matter that the orientation of the force converts from a tensile side to a compressive side.
A fuel injection control apparatus of a compression self-igniting internal combustion engine that, as an operation to inject fuel from a fuel injection valve, is capable of executing at least a main injection and a sub injection that is performed prior to the main injection, the fuel injection control apparatus being characterized by: a compressed gas temperature identification portion that estimates or detects a compressed gas temperature that only increases due to compression of gas in a cylinder during a compression stroke in a case where it is assumed that the sub injection is not executed; and a sub injection control portion that compares the compressed gas temperature estimated or detected by the compressed gas temperature identification portion to a fuel self-ignition temperature, and executes the sub injection prior to the main injection only when the compressed gas temperature is lower than the fuel self-ignition temperature. a compressed gas temperature identification portion that estimates or detects a compressed gas temperature that only increases due to compression of gas in a cylinder during a compression stroke in a case where it is assumed that the sub injection is not executed; and a sub injection control portion that compares the compressed gas temperature estimated or detected by the compressed gas temperature identification portion to a fuel self-ignition temperature, and executes the sub injection prior to the main injection only when the compressed gas temperature is lower than the fuel self-ignition temperature.
A distributed task system, comprising: a task transaction server; and at least one task server (210 or 230) comprising a self-balancing unit (212, 232) and a task execution unit (213, 233), wherein the task transaction server is adapted to receive from the task server (210 or 230) a task request requesting a task, to determine whether the task server can execute the requested task based on an execution condition of the requested task and to send a feedback to the task server, the feedback being the result of the determination, wherein the self-balancing unit is adapted to send the task request to the task transaction server, to check whether the task server is busy when the feedback indicates that the task server can execute the task, and to further send a task check message to the task transaction server if the task server is busy, wherein the task transaction server is configured to, subsequent to receiving the task check message, check if another task server is requesting for the task, and to return a result of checking to the self-balancing unit, wherein the self-balancing unit is further adapted to trigger the task execution unit to execute the task if the result of checking is not affirmative or if the task server is not busy; and wherein the task execution unit is connected with the self-balancing unit and is adapted to execute the task. a task transaction server; and at least one task server (210 or 230) comprising a self-balancing unit (212, 232) and a task execution unit (213, 233), wherein the task transaction server is adapted to receive from the task server (210 or 230) a task request requesting a task, to determine whether the task server can execute the requested task based on an execution condition of the requested task and to send a feedback to the task server, the feedback being the result of the determination, wherein the self-balancing unit is adapted to send the task request to the task transaction server, to check whether the task server is busy when the feedback indicates that the task server can execute the task, and to further send a task check message to the task transaction server if the task server is busy, wherein the task transaction server is configured to, subsequent to receiving the task check message, check if another task server is requesting for the task, and to return a result of checking to the self-balancing unit, wherein the self-balancing unit is further adapted to trigger the task execution unit to execute the task if the result of checking is not affirmative or if the task server is not busy; and wherein the task execution unit is connected with the self-balancing unit and is adapted to execute the task.
An air dispensing duct for an oven for cooking or heating a food product, comprising: a cover plate; a columnating plate, wherein said cover plate and said columnating plate each have a plurality of orifices therein; and a housing connected to said cover plate and said columnating plate, said housing having an interior space and opening at one end for receiving air, so that air enters the air dispensing duct through said opening, is dispersed throughout said interior space, and passes out through said columnating plate and said cover plate, characterized in that said cover plate and said columnating plate are spaced apart at a distance of 25,4 to 44,45 mm, wherein said orifices are substantially round in shape, and have a diameter ranging from 12,7 to 50,8 mm, and wherein a ratio of said diameter of said orifices in said columnating plate to said diameter of said orifices in said cover plate is between 4:5 to 1:4. a cover plate; a columnating plate, wherein said cover plate and said columnating plate each have a plurality of orifices therein; and a housing connected to said cover plate and said columnating plate, said housing having an interior space and opening at one end for receiving air, so that air enters the air dispensing duct through said opening, is dispersed throughout said interior space, and passes out through said columnating plate and said cover plate, characterized in that said cover plate and said columnating plate are spaced apart at a distance of 25,4 to 44,45 mm, wherein said orifices are substantially round in shape, and have a diameter ranging from 12,7 to 50,8 mm, and wherein a ratio of said diameter of said orifices in said columnating plate to said diameter of said orifices in said cover plate is between 4:5 to 1:4.
An apparatus for use in biomedical application, said apparatus comprising: means (92, 94, 96) for generating a set of at least four timing intervals T 1 -T 4, said timing intervals T 3 -T 4 forming a cycle including at least one pulse burst occurring in the timing interval T 3, the pulse burst having pulses of a first polarity with a first duration equal to the timing interval T 1 alternating with pulses of a second polarity with a second duration equal to the timing interval T 2, the pulse burst followed by an equalizing pulse of a third polarity and duration equal to the time interval T 4 to neutralize an accumulated charge resulting from a difference between timing intervals T 1 and T 2 before a next pulse burst, said timing intervals T 1 -T 4 having approximately the relationships (a) (2 × T 2) ≤ T 1 ≤ (20 × T 2), (b) 50 μsec ≤ (T 1 + T 2) ≤ 5000 μsec, (c) T 3 ≥ (10 × T 1), and (d) 0 ≤ T 4 ≤ 500 msec, means for using said timing intervals to generate an electrical signal having an amplitude. means (92, 94, 96) for generating a set of at least four timing intervals T 1 -T 4, said timing intervals T 3 -T 4 forming a cycle including at least one pulse burst occurring in the timing interval T 3, the pulse burst having pulses of a first polarity with a first duration equal to the timing interval T 1 alternating with pulses of a second polarity with a second duration equal to the timing interval T 2, the pulse burst followed by an equalizing pulse of a third polarity and duration equal to the time interval T 4 to neutralize an accumulated charge resulting from a difference between timing intervals T 1 and T 2 before a next pulse burst, said timing intervals T 1 -T 4 having approximately the relationships (a) (2 × T 2) ≤ T 1 ≤ (20 × T 2), (b) 50 μsec ≤ (T 1 + T 2) ≤ 5000 μsec, (c) T 3 ≥ (10 × T 1), and (d) 0 ≤ T 4 ≤ 500 msec, (a) (2 × T 2) ≤ T 1 ≤ (20 × T 2), (b) 50 μsec ≤ (T 1 + T 2) ≤ 5000 μsec, (c) T 3 ≥ (10 × T 1), and (d) 0 ≤ T 4 ≤ 500 msec, means for using said timing intervals to generate an electrical signal having an amplitude.
A two-stage centrifugal pump comprising: - a first stage provided with a first impeller; and - a second stage provided with a second impeller and hydraulically connected to the first stage; - the first impeller being mounted on a first shaft and the second impeller being mounted on a second shaft distinct from said first shaft; wherein the first stage and the second stage are located in a support body, the support body being provided with a first chamber and a second chamber in which the respective first impeller and the second impeller are contained; and wherein the support body comprises a single casing provided with a first cavity and a second cavity that each define respective portions of said first chamber and said second chamber; and wherein in at least one of either the first cavity or the second cavity, one or more adaptors are mounted, in use to adapt the geometry of the first chamber and/or the second chamber to the type and size of impeller adopted; characterised in that the support body defines a suction channel and flange and a delivery channel and flange, through which the stream of fluid is respectively introduced into, and discharged from, the pump. - a first stage provided with a first impeller; and - a second stage provided with a second impeller and hydraulically connected to the first stage; - the first impeller being mounted on a first shaft and the second impeller being mounted on a second shaft distinct from said first shaft; wherein the first stage and the second stage are located in a support body, the support body being provided with a first chamber and a second chamber in which the respective first impeller and the second impeller are contained; and
A solid compressed lubricating member for a razor cartridge comprising: i) from 10% to 90% by weight of a particulate material comprising a water soluble polymer and ii) from 1% to 40% by weight of a silicone polymer or mixtures thereof; wherein at least a portion of said water soluble polymer is spray coated with said silicone polymer compound. i) from 10% to 90% by weight of a particulate material comprising a water soluble polymer and ii) from 1% to 40% by weight of a silicone polymer or mixtures thereof;
An imaging detector for capturing optical imaging data and X-ray imaging data, comprising: - a substrate; - a photosensitive sensor; - an X-ray scintillator; and - an array of optical component arrangements; wherein the photosensitive sensor comprises sensor pixels distributed across the imaging detector; wherein the X-ray scintillator is configured to convert energy of incident X-ray radiation into optical photons; said imaging detector being characterized in that each optical component arrangement comprises at least one optical component configured for directing incident optical radiation towards the photosensitive sensor; wherein the sensor pixels comprise optical pixels, each coupled with a respective optical component arrangement to receive the incident optical radiation, thereby generating the optical imaging data; and wherein the sensor pixels comprise X-ray pixels coupled with the X-ray scintillator to receive the converted optical photons, thereby generating the X-ray imaging data. - a substrate; - a photosensitive sensor; - an X-ray scintillator; and - an array of optical component arrangements; wherein the photosensitive sensor comprises sensor pixels distributed across the imaging detector; wherein the X-ray scintillator is configured to convert energy of incident X-ray radiation into optical photons; said imaging detector being characterized in that each optical component arrangement comprises at least one optical component configured for directing incident optical radiation towards the photosensitive sensor; wherein the sensor pixels comprise optical pixels, each coupled with a respective optical component arrangement to receive the incident optical radiation, thereby generating the optical imaging data; and wherein the sensor pixels comprise X-ray pixels coupled with the X-ray scintillator to receive the converted optical photons, thereby generating the X-ray imaging data. wherein the photosensitive sensor comprises sensor pixels distributed across the imaging detector; wherein the X-ray scintillator is configured to convert energy of incident X-ray radiation into optical photons; said imaging detector being characterized in that each optical component arrangement comprises at least one optical component configured for directing incident optical radiation towards the photosensitive sensor; wherein the sensor pixels comprise optical pixels, each coupled with a respective optical component arrangement to receive the incident optical radiation, thereby generating the optical imaging data; and wherein the sensor pixels comprise X-ray pixels coupled with the X-ray scintillator to receive the converted optical photons, thereby generating the X-ray imaging data. wherein the sensor pixels comprise optical pixels, each coupled with a respective optical component arrangement to receive the incident optical radiation, thereby generating the optical imaging data; and wherein the sensor pixels comprise X-ray pixels coupled with the X-ray scintillator to receive the converted optical photons, thereby generating the X-ray imaging data.
A one-press manufacturing method for a glass container comprising: a step of putting a gob in a pressing mold and then inserting a plunger, which includes an unevenness forming member provided so as to be capable of being received in the plunger, into the gob while the unevenness forming member is received in the plunger; a step of forming a glass container having a finished shape, which includes an uneven shape on an inner peripheral surface thereof, by pressing the unevenness forming member against the surface of the gob, which comes into contact with the unevenness forming member, to the outside from the inside of the plunger; a step of receiving the unevenness forming member in the plunger; a step of extracting the plunger, in which the unevenness forming member is received, from the glass container having a finished shape that includes the uneven shape on the inner peripheral surface thereof; and a step of transporting the glass container having a finished shape, which includes the uneven shape on the inner peripheral surface thereof, to a cooling mold and cooling the glass container having a finished shape. a step of putting a gob in a pressing mold and then inserting a plunger, which includes an unevenness forming member provided so as to be capable of being received in the plunger, into the gob while the unevenness forming member is received in the plunger; a step of forming a glass container having a finished shape, which includes an uneven shape on an inner peripheral surface thereof, by pressing the unevenness forming member against the surface of the gob, which comes into contact with the unevenness forming member, to the outside from the inside of the plunger; a step of receiving the unevenness forming member in the plunger; a step of extracting the plunger, in which the unevenness forming member is received, from the glass container having a finished shape that includes the uneven shape on the inner peripheral surface thereof; and a step of transporting the glass container having a finished shape, which includes the uneven shape on the inner peripheral surface thereof, to a cooling mold and cooling the glass container having a finished shape.
A method of producing an ethylenically unsaturated carboxylic acid or ester, preferably an α, β ethylenically unsaturated carboxylic acid or ester, comprising the steps of contacting formaldehyde or a source thereof with a carboxylic acid or ester in the presence of a catalyst and optionally an alcohol, wherein the catalyst comprises group II metal phosphate crystals having rod or needle like morphology.
A method for performing an association with an access point in a wireless local area network, the method comprising: transmitting, by a station (21-24; 1800), an association request frame to the access point; and receiving, by the station (21-24; 1800), an association response frame in response to the association request frame from the access point, the association response frame including association identifier, AID, assignment information including an AID field indicating an AID assigned to the station, characterized in that the AID assignment information further includes: an AID beacon offset field and an AID beacon interval field, wherein the AID beacon offset field indicates when a traffic indication map, TIM, element corresponding to the assigned AID starts to be transmitted in a beacon frame, and the AID beacon interval field indicates an interval at which the beacon frame having the TIM element corresponding to the assigned AID is transmitted. transmitting, by a station (21-24; 1800), an association request frame to the access point; and receiving, by the station (21-24; 1800), an association response frame in response to the association request frame from the access point, the association response frame including association identifier, AID, assignment information including an AID field indicating an AID assigned to the station, characterized in that the AID assignment information further includes: an AID beacon offset field and an AID beacon interval field, wherein the AID beacon offset field indicates when a traffic indication map, TIM, element corresponding to the assigned AID starts to be transmitted in a beacon frame, and the AID beacon interval field indicates an interval at which the beacon frame having the TIM element corresponding to the assigned AID is transmitted. an AID beacon offset field and an AID beacon interval field, the AID beacon offset field indicates when a traffic indication map, TIM, element corresponding to the assigned AID starts to be transmitted in a beacon frame, and the AID beacon interval field indicates an interval at which the beacon frame having the TIM element corresponding to the assigned AID is transmitted.
A polar decoder configured to: receive at least two successive encoded blocks having a block size of N that varies from block to block at run time, where N is a power of two, each encoded block comprising N soft bits; and for each encoded block, output one or more recovered information bits; wherein the polar decoder is configured to decompose a polar code graph (201, 202, 203) into a number of columns (1701, 1702) by distributing n = log 2 stages of the polar code graph amongst the number of columns (1701,1702), wherein the polar decoder is configured to select the number of columns (1701, 1702) and the number of stages in each column dependent on the block size N. a maximum number of stages accommodated in an outer column s 0 and a maximum number of stages accommodated in each inner column s i, where the outer column designates a left-most column in the polar code graph representing the polar code generator matrix F ⊗n, while the other columns are referred to as inner columns and wherein the polar decoder comprises memory located at an interface between each consecutive pair of the number of columns (1701, 1702), where the memory is configured to store bits and soft bits and wherein the polar decoder does not comprise any memory at an interface between each consecutive pair of stages within a column (1701, 1702). receive at least two successive encoded blocks having a block size of N that varies from block to block at run time, where N is a power of two, each encoded block comprising N soft bits; and for each encoded block, output one or more recovered information bits; wherein the polar decoder is configured to decompose a polar code graph (201, 202, 203) into a number of columns (1701, 1702) by distributing n = log 2 stages of the polar code graph amongst the number of columns (1701,1702), wherein the polar decoder is configured to select the number of columns (1701, 1702) and the number of stages in each column dependent on the block size N. a maximum number of stages accommodated in an outer column s 0 and a maximum number of stages accommodated in each inner column s i, where the outer column designates a left-most column in the polar code graph representing the polar code generator matrix F ⊗n, while the other columns are referred to as inner columns and wherein the polar decoder comprises memory located at an interface between each consecutive pair of the number of columns (1701, 1702), where the memory is configured to store bits and soft bits and wherein the polar decoder does not comprise any memory at an interface between each consecutive pair of stages within a column (1701, 1702).