mhurhangee/ep-ind-claims huggingface dataset:
A blood pressure pulse wave measurement apparatus for measuring a lower/upper limb blood pressure ratio and a pulse wave velocity, the apparatus comprising: a pair of first cuffs (24br, 24bl) for pressing part of upper limbs of a subject; a pair of second cuffs (24ar, 24al) for pressing part of lower limbs of the subject; a pair of first tubes (22br, 22bl) and a pair of second tubes (22ar, 22bl) connected to the pair of first cuffs (24br, 24bl) and the pair of second cuffs (24ar, 24al), respectively; a first detection section (20br, 20bl) that is connected to the pair of first cuffs (24br, 24bl) via the pair of first tubes (22br, 22bl) and configured to detect a first pulse wave propagating through the pair of first tubes (22br, 22bl); a second detection section (20ar, 20al) that is connected to the pair of second cuffs (24ar, 24al) via the pair of second tubes (22ar, 22al) and configured to detect a second pulse wave propagating through the pair of second tubes (22ar, 22al); and a control section that is configured to calculate an ankle brachial index and the pulse wave velocity using the first pulse wave and the second pulse wave, respectively, characterised in two separated casings (101, 102), wherein the first detection section and the control section are disposed in the first casing, and the second detection section (20ar, 20al) is disposed in the second casing, such that the pair of first tubes (22br, 22bl) and the pair of second tubes (22ar, 22al) are all adjusted to be substantially the same in length such that a timing of detection of the first pulse wave and a timing of detection of the second pulse wave are substantially the same. a pair of first cuffs (24br, 24bl) for pressing part of upper limbs of a subject; a pair of second cuffs (24ar, 24al) for pressing part of lower limbs of the subject; a pair of first tubes (22br, 22bl) and a pair of second tubes (22ar, 22bl) connected to the pair of first cuffs (24br, 24bl) and the pair of second cuffs (24ar, 24al), respectively; a first detection section (20br, 20bl) that is connected to the pair of first cuffs (24br, 24bl) via the pair of first tubes (22br, 22bl) and configured to detect a first pulse wave propagating through the pair of first tubes (22br, 22bl); a second detection section (20ar, 20al) that is connected to the pair of second cuffs (24ar, 24al) via the pair of second tubes (22ar, 22al) and configured to detect a second pulse wave propagating through the pair of second tubes (22ar, 22al); and a control section that is configured to calculate an ankle brachial index and the pulse wave velocity using the first pulse wave and the second pulse wave, respectively, characterised in two separated casings (101, 102), wherein the first detection section and the control section are disposed in the first casing, and the second detection section (20ar, 20al) is disposed in the second casing, such that the pair of first tubes (22br, 22bl) and the pair of second tubes (22ar, 22al) are all adjusted to be substantially the same in length such that a timing of detection of the first pulse wave and a timing of detection of the second pulse wave are substantially the same.
A computer-implemented method comprising: receiving (i) example data sets and (ii) data specifying one or more criteria against which input data sets are to be assessed; generating models based on different combinations of features using training data sets comprising subsets of the example data sets by, for each of the different combinations of features, training a set of multiple models that are each configured to classify input data sets based on whether the features in the combination are present in the input data sets, wherein each model in each set of models is respectively trained using a training data set comprising a different subset of the example data sets; obtaining, from each model in each of the sets of generated models, output that the respective models generate for test data sets comprising subsets of the example data sets different from those of the training data sets with which the respective models were trained; selecting one of the combinations of features based on the outputs of the respective models by determining, for each generated model, an efficacy for the model for identifying data sets within the test data set that meet the one or more criteria; and using the example data sets to train a classifier to evaluate input data with respect to the specified one or more criteria based on input values corresponding to the features of the input data in the selected combination of features. receiving (i) example data sets and (ii) data specifying one or more criteria against which input data sets are to be assessed; generating models based on different combinations of features using training data sets comprising subsets of the example data sets by, for each of the different combinations of features, training a set of multiple models that are each configured to classify input data sets based on whether the features in the combination are present in the input data sets, wherein each model in each set of models is respectively trained using a training data set comprising a different subset of the example data sets; obtaining, from each model in each of the sets of generated models, output that the respective models generate for test data sets comprising subsets of the example data sets different from those of the training data sets with which the respective models were trained; selecting one of the combinations of features based on the outputs of the respective models by determining, for each generated model, an efficacy for the model for identifying data sets within the test data set that meet the one or more criteria; and using the example data sets to train a classifier to evaluate input data with respect to the specified one or more criteria based on input values corresponding to the features of the input data in the selected combination of features.
Hatch and valve arrangement for a charging installation for a shaft furnace, such as a blast furnace, said arrangement comprising a housing, inside which is located at least one hatch and/or a valve, caused to pivot by an actuator (25, 35) located outside the housing and connected to the hatch or valve by a linking shaft guided in a bearing that is fixed with respect to the housing, characterised in that the bearing (24, 34) and the actuator (25, 35) are mounted on a detachable door (26, 36) that seals an opening (13, 15) made in the wall of the housing and whose dimensions are determined such that the hatch or the valve can be withdrawn transversely to the axis of the housing through said opening; the door, the hatch or the valve and its actuator and its associated means for transmitting movement, together constitute a module (2, 3) that is detachable in one piece from the housing; and said module (2, 3) is designed to be extracted in one piece from the housing.
A method of aligning a tracking system of a communication device (102, 122), the method comprising: receiving an optical beam at the communication device, a first beam portion of the optical beam being received at the tracking system and a second beam portion of the optical beam being received at an optical fiber of the communication device; receiving, by one or more processors, a first signal and a second signal from the tracking system, the first and second signals being generated by a tracking sensor of the tracking system based on a position of the first beam portion received at the tracking sensor; determining, by the one or more processors, a first phase difference based on a first phase of the first signal and a second phase difference based on a second phase of the second signal, wherein the first phase difference is between a first phase of the first signal and a first clock component phase measurement, and the second phase difference is between a second phase of the second signal and a second clock component phase measurement; determining, by the one or more processors, a first offset for the first signal based on the first phase difference and a second offset for the second signal based on the second phase difference for use in electronically aligning the tracking sensor and the optical fiber by adjusting a setpoint position of the tracking sensor of the tracking system; and tracking, by the one or more processors, the optical beam using the tracking system and the determined first and second offsets. receiving an optical beam at the communication device, a first beam portion of the optical beam being received at the tracking system and a second beam portion of the optical beam being received at an optical fiber of the communication device; receiving, by one or more processors, a first signal and a second signal from the tracking system, the first and second signals being generated by a tracking sensor of the tracking system based on a position of the first beam portion received at the tracking sensor; determining, by the one or more processors, a first phase difference based on a first phase of the first signal and a second phase difference based on a second phase of the second signal, wherein the first phase difference is between a first phase of the first signal and a first clock component phase measurement, and the second phase difference is between a second phase of the second signal and a second clock component phase measurement; determining, by the one or more processors, a first offset for the first signal based on the first phase difference and a second offset for the second signal based on the second phase difference for use in electronically aligning the tracking sensor and the optical fiber by adjusting a setpoint position of the tracking sensor of the tracking system; and tracking, by the one or more processors, the optical beam using the tracking system and the determined first and second offsets.
A mixture for providing at least a portion of a travelled surface, the mixture comprising: an aggregate; at least one hydrocolloidal agent, wherein said mixture comprises from 0.3% to 2.5% by weight of said at least one hydrocolloidal agent and said hydrocolloidal agent is psyllium; the mixture comprising from 95% to 99.6% by weight of the aggregate, characterised in that said mixture further comprises at least one agent for elevating pH, wherein said at least one agent for elevating pH is lime, and said mixture comprises from 0.1% to 2.5% by weight of said at least one agent for elevating pH. an aggregate; at least one hydrocolloidal agent, wherein said mixture comprises from 0.3% to 2.5% by weight of said at least one hydrocolloidal agent and said hydrocolloidal agent is psyllium; the mixture comprising from 95% to 99.6% by weight of the aggregate, characterised in that said mixture further comprises at least one agent for elevating pH, wherein said at least one agent for elevating pH is lime, and said mixture comprises from 0.1% to 2.5% by weight of said at least one agent for elevating pH.
An ion pump comprising: an anode tube (200; 300; 400; 500; 600; 610); and a cathode plate (250; 650; 850) comprising: a front surface; a back surface (655; 855); and an additional material extending from the front surface, wherein the cathode plate (250... 850) is located in proximity to the anode tube (200; 300; 400; 500; 600; 610), wherein the front surface is in closer proximity to the anode tube (200... 610) than the back surface (655; 855), and characterized by the additional material comprising a centerline (E-E) that is offset from a mechanical axial center axis (A-A') of the anode tube; wherein the additional material is contained within a footprint defined by and projected to the cathode plate (250... 850) from an open end of the anode tube (200... 610) along an axis, wherein the additional material forms a substantially symmetrical shape along said centerline (E-E'). an anode tube (200; 300; 400; 500; 600; 610); and a cathode plate (250; 650; 850) comprising: a front surface; a back surface (655; 855); and an additional material extending from the front surface, wherein the cathode plate (250... 850) is located in proximity to the anode tube (200; 300; 400; 500; 600; 610), wherein the front surface is in closer proximity to the anode tube (200... 610) than the back surface (655; 855), and characterized by the additional material comprising a centerline (E-E) that is offset from a mechanical axial center axis (A-A') of the anode tube; wherein the additional material is contained within a footprint defined by and projected to the cathode plate (250... 850) from an open end of the anode tube (200... 610) along an axis, wherein the additional material forms a substantially symmetrical shape along said centerline (E-E'). a front surface; a back surface (655; 855); and an additional material extending from the front surface, wherein the cathode plate (250... 850) is located in proximity to the anode tube (200; 300; 400; 500; 600; 610), wherein the front surface is in closer proximity to the anode tube (200... 610) than the back surface (655; 855), and characterized by the additional material comprising a centerline (E-E) that is offset from a mechanical axial center axis (A-A') of the anode tube; wherein the additional material is contained within a footprint defined by and projected to the cathode plate (250... 850) from an open end of the anode tube (200... 610) along an axis, wherein the additional material forms a substantially symmetrical shape along said centerline (E-E').
Induction hob comprising a circuitry for powering at least one induction coil, the circuitry comprising a power circuit portion with at least one switching element (4, 5) adapted to provide pulsed electric power to said induction coil and an oscillating circuit portion, said induction coil being electrically coupled with said power circuit portion and said oscillating circuit portion, wherein said induction hob comprises a control entity, the induction hob being characterized in that said control entity is configured to receive first information correlated with a first voltage provided at said power circuit portion and second information correlated with a second voltage correlated with said oscillating circuit portion, said control entity being further configured to calculate information regarding a peak value and a power factor of the electric current provided through said induction coil based on said received first and second information.
A method of requesting recordation of a compound transaction to a distributed network of a blockchain, comprising steps of: a first node within the distributed network signing a received compound transaction, which has a data structure in which a plurality of transactions are stored, each of the plurality of transactions identifying an asset movement between a source address and a destination address, the signing of the received compound transaction performed by the first node using a secret key of the first node when the plurality of transactions include a transaction comprising a source address of the first node, when there is a remaining source address to which the received compound transaction needs to be signed after the signing by the secret key, the first node transmitting the received compound transaction to a second node within the distributed network, and when there is no remaining source address to which the received compound transaction needs to be signed after the signing by the secret key, the first node transmitting the received compound transaction to a third node within the distributed network to request recordation to the distributed network, wherein respective signatures to the received compound transaction are made with respect to all of the plurality of transactions included in the received compound transaction. a first node within the distributed network signing a received compound transaction, which has a data structure in which a plurality of transactions are stored, each of the plurality of transactions identifying an asset movement between a source address and a destination address, the signing of the received compound transaction performed by the first node using a secret key of the first node when the plurality of transactions include a transaction comprising a source address of the first node, when there is a remaining source address to which the received compound transaction needs to be signed after the signing by the secret key, the first node transmitting the received compound transaction to a second node within the distributed network, and when there is no remaining source address to which the received compound transaction needs to be signed after the signing by the secret key, the first node transmitting the received compound transaction to a third node within the distributed network to request recordation to the distributed network, wherein respective signatures to the received compound transaction are made with respect to all of the plurality of transactions included in the received compound transaction.
Method for distributing food fluid in a bakery, comprising a circulation of food fluid, from a cold room to at least one metering point (3, 6), in supply piping located between the cold room and the metering point (3, 6), the cold room being at a distance from the metering point (3, 6), the cold room being remote from the metering point characterized in that the supply piping comprises two piping segments (11, 12) and a set of valves (13, 14) arranged so that: > for a first configuration of the set of valves (13, 14), the two piping segments (11, 12) supply the metering point (3, 6) with food fluid, in parallel and simultaneously, from at least one tank (2, 20) of food fluid located in the cold room, > for at least one other configuration of the set of valves (13, 14), the two piping segments (11, 12) form a fluid circulation loop. > for a first configuration of the set of valves (13, 14), the two piping segments (11, 12) supply the metering point (3, 6) with food fluid, in parallel and simultaneously, from at least one tank (2, 20) of food fluid located in the cold room, > for at least one other configuration of the set of valves (13, 14), the two piping segments (11, 12) form a fluid circulation loop.
A method of producing a pancreatic hormone-producing cell(s), comprising subjecting a stem cell(s) to the following steps -: a step of cultivating a stem cell(s) in a medium containing an activator of activin receptor-like kinase-4,7 and a GSK3 inhibitor a step of cultivating the cell(s) obtained in the aforementioned step in a medium containing an activator of activin receptor-like kinase-4,7 a step of cultivating the cell(s) obtained in the aforementioned step in a medium containing (a) retinoic acid receptor agonists, (b) at least one kind selected from the group consisting of inhibitors of AMP-activated protein kinase and/or activin receptor-like kinase-2,3,6, and BMP antagonists, and (c) inhibitors of activin receptor-like kinase-4,5,7 a step of cultivating the cell(s) obtained in the aforementioned step. a step of cultivating a stem cell(s) in a medium containing an activator of activin receptor-like kinase-4,7 and a GSK3 inhibitor a step of cultivating the cell(s) obtained in the aforementioned step in a medium containing an activator of activin receptor-like kinase-4,7 a step of cultivating the cell(s) obtained in the aforementioned step in a medium containing (a) retinoic acid receptor agonists, (b) at least one kind selected from the group consisting of inhibitors of AMP-activated protein kinase and/or activin receptor-like kinase-2,3,6, and BMP antagonists, and (c) inhibitors of activin receptor-like kinase-4,5,7 a step of cultivating the cell(s) obtained in the aforementioned step.
A liquid dispensing system for dispensing a liquid from a dispenser into a receptacle, the system comprising: a dispenser controllable to dispense the liquid; means for supporting a receptacle at a location to receive the liquid dispensed from the dispenser; a communication module configured to transmit data to a receptacle located on the supporting means and to receive messages from the receptacle; and a controller coupled to the communication module and operable to control the dispenser to dispense the liquid; characterised in that one of the messages comprises a stop signal, transmitted from the receptacle when it is determined that a pre-determined volume of the liquid has been received at the receptacle, wherein the controller is configured to cause a flow of the liquid to the receptacle to be interrupted responsive to receipt of the stop signal from the receptacle. a dispenser controllable to dispense the liquid; means for supporting a receptacle at a location to receive the liquid dispensed from the dispenser; a communication module configured to transmit data to a receptacle located on the supporting means and to receive messages from the receptacle; and a controller coupled to the communication module and operable to control the dispenser to dispense the liquid; characterised in that one of the messages comprises a stop signal, transmitted from the receptacle when it is determined that a pre-determined volume of the liquid has been received at the receptacle, wherein the controller is configured to cause a flow of the liquid to the receptacle to be interrupted responsive to receipt of the stop signal from the receptacle.