mhurhangee/ep-ind-claims huggingface dataset:
Process comprising pyrolysing a material consisting of end-of-life tyres by means of irradiation with microwaves, in order to obtain pyrolysis oils having a sulphur content of <1% by weight and a fraction of distillable hydrocarbons in amount greater than 40% by weight, having a boiling point b.p. comprised between 20 and 265 °C said process characterised in that: the delivery of the MW is adjusted to such a power level as to obtain a mean percentage pyrolysis rate (V M%) of between 0.30 and 2.00 %/min and/or a mean heating rate (V M risc) less than 20 °C/min.
Method of rolling a rolling material in a rolling mill with at least one roll stand, wherein a gap height of a rolling gap, which is arranged between work rolls of the roll stand, is set before contact of the rolling material with these work rolls so as to be less than an entry thickness (h 1) of the rolling material, wherein at least one driven work roll of the roll stand is operated at a target rotational speed (v 0) after the rolling material has reached the rolling gap and wherein the driven work roll is operated at a pre-control rotational speed (v v) differing from the target rotational speed (V 0) until the rolling material has reached the rolling gap, and wherein the pre-control rotational speed (v v), from the contact of the rolling material with the driven work roll, is varied in such a way that the pre-control rotational speed (v v) rises monotonically or falls monotonically.
A method for classification of a biological tissue using a computing system, the method comprising: receiving, at the computing system (15, 20), image data (102, 104, 106) comprising a plurality of images of an examination area of a biological tissue, each of the plurality of images being captured at different times during a period in which topical application of a pathology differentiating agent to the examination area of the tissue causes transient optical effects; and providing the received image data as an input to a machine learning algorithm operative on the computing system (15, 20), the machine learning algorithm comprising a deep neural network and being configured to identify a plurality of segments of the tissue and allocate one of a plurality of classifications to each of the plurality of segments of the tissue; and wherein the plurality of classifications are defined by a scale of values on a continuous range indicative of a probability of a disease state. receiving, at the computing system (15, 20), image data (102, 104, 106) comprising a plurality of images of an examination area of a biological tissue, each of the plurality of images being captured at different times during a period in which topical application of a pathology differentiating agent to the examination area of the tissue causes transient optical effects; and providing the received image data as an input to a machine learning algorithm operative on the computing system (15, 20), the machine learning algorithm comprising a deep neural network and being configured to identify a plurality of segments of the tissue and allocate one of a plurality of classifications to each of the plurality of segments of the tissue; and wherein the plurality of classifications are defined by a scale of values on a continuous range indicative of a probability of a disease state.
An assembly comprising: a housing; a first set of coils mounted to the housing, wherein the first set of coils extends in a first direction along the housing for a first length; a second set of coils mounted to the housing, wherein the second set of coils extends in the first direction along the housing for a second length that is shorter than the first length; and a core member including a first core and a second core in series with one another in the first direction along the core member, characterised in that the core member is moveable within the housing along a stroke, wherein both the first core and the second core are fixed to the core member to move together relative to the housing, wherein for at least a first portion of the stroke, the first core is within the first set of coils to provide position data for the core member for the first portion of the stroke, wherein for at least a second portion of the stroke, the second core is within the second set of coils to provide position data for the core member for the second portion of the stroke; and wherein the second set of coils and second core are configured to provide greater spatial resolution for measurements of position of the core member than are the first set of coils and first core. a housing; a first set of coils mounted to the housing, wherein the first set of coils extends in a first direction along the housing for a first length; a second set of coils mounted to the housing, wherein the second set of coils extends in the first direction along the housing for a second length that is shorter than the first length; and a core member including a first core and a second core in series with one another in the first direction along the core member, characterised in that the core member is moveable within the housing along a stroke, wherein both the first core and the second core are fixed to the core member to move together relative to the housing, wherein for at least a first portion of the stroke, the first core is within the first set of coils to provide position data for the core member for the first portion of the stroke, wherein for at least a second portion of the stroke, the second core is within the second set of coils to provide position data for the core member for the second portion of the stroke; and wherein the second set of coils and second core are configured to provide greater spatial resolution for measurements of position of the core member than are the first set of coils and first core.
A prediction device for predicting a shape of a foot of a measurement subject person in an unloaded state, the prediction device comprising: an acquisition unit configured to acquire measurement subject data including measurement data of the shape of the foot of the measurement subject person in a loaded state; a storage unit configured to store first sample data in the loaded state and second sample data in the unloaded state, the first sample data and the second sample data being calculated from measurement data of foot shapes of a plurality of samples, the samples being identical both in the loaded state and the unloaded state; and a prediction unit configured to predict the shape of the foot of the measurement subject person in the unloaded state, wherein the prediction unit is configured to: calculate a difference between the measurement subject data and the first sample data; and predict the shape of the foot of the measurement subject person in the unloaded state based on the difference and the second sample data. an acquisition unit configured to acquire measurement subject data including measurement data of the shape of the foot of the measurement subject person in a loaded state; a storage unit configured to store first sample data in the loaded state and second sample data in the unloaded state, the first sample data and the second sample data being calculated from measurement data of foot shapes of a plurality of samples, the samples being identical both in the loaded state and the unloaded state; and a prediction unit configured to predict the shape of the foot of the measurement subject person in the unloaded state, wherein the prediction unit is configured to: calculate a difference between the measurement subject data and the first sample data; and predict the shape of the foot of the measurement subject person in the unloaded state based on the difference and the second sample data.
An ophthalmic composition for treatment or prophylaxis of a disorder of at least one eye tissue, comprising pharmaceutically acceptable excipients and povidone iodine (PVP-I) wherein PVP-I exists as microspheres formed by PVP-I and sodium alginate.
A flexible conductive element comprising at least one insulating layer and at least one conductive track fixed to the at least one insulating layer, wherein the conductive track has a plurality of stretches, and wherein the adjacent stretches of said plurality of stretches have a different orientation one another, and wherein said insulating layer is made of a thermoplastic polymeric material; wherein there is provided a plurality of branches of a thermally conductive material extending from the conductive track.
A lift assembly comprising: a base; a drive mechanism; a flexible drive element driven by the drive mechanism and extending from the drive mechanism along a fleet axis; and a sheave directing the drive element from the fleet axis to an output axis different than the fleet axis, wherein the sheave is coupled to the base at a first sheave mount aligned with the fleet axis, characterised in that the base further includes a second sheave mount aligned with the fleet axis, the second sheave mount being configured to be coupled to the sheave to thereby allow the sheave to be de-coupled from the first sheave mount and coupled to the second sheave mount, the second sheave mount being positioned such that coupling of the sheave to the second sheave mount results in substantially no change in a fleet angle (α) of the fleet axis; and the sheave is positioned on a first side of the fleet axis when coupled to the first sheave mount, and wherein the sheave is positioned on a second side of the fleet axis when coupled to the second sheave mount, the second side being substantially opposed to the first side. a base; a drive mechanism; a flexible drive element driven by the drive mechanism and extending from the drive mechanism along a fleet axis; and a sheave directing the drive element from the fleet axis to an output axis different than the fleet axis, wherein the sheave is coupled to the base at a first sheave mount aligned with the fleet axis, characterised in that the base further includes a second sheave mount aligned with the fleet axis, the second sheave mount being configured to be coupled to the sheave to thereby allow the sheave to be de-coupled from the first sheave mount and coupled to the second sheave mount, the second sheave mount being positioned such that coupling of the sheave to the second sheave mount results in substantially no change in a fleet angle (α) of the fleet axis; and the sheave is positioned on a first side of the fleet axis when coupled to the first sheave mount, and wherein the sheave is positioned on a second side of the fleet axis when coupled to the second sheave mount, the second side being substantially opposed to the first side.
External opening control system for controlling the external opening of a door of a vehicle, comprising: - a handle, mechanically operable in an open position, in which the handle permits opening of the door, - a bracket, intended to be fixed in said door, and having a housing configured to receive the handle, characterized in that said opening control system comprises a set of water discharge orifices, comprising at least one orifice (OP,1) passing through the handle and one orifice (OE,1, OE,2) passing through the stirrup. - a handle, mechanically operable in an open position, in which the handle permits opening of the door, - a bracket, intended to be fixed in said door, and having a housing configured to receive the handle,
Household appliance hinge, having - a hinge arm for connecting to a household appliance door, - a hinge housing with two lateral housing flanks (4a, 4b), - which hinge arm is connected to the hinge housing in a rotatable manner on a first axis of rotation, and - a friction device for obstructing a movement of the hinge arm, characterised in that - the friction device has an adjustable-length cartridge, which - has a spring element for expanding the cartridge, - is accommodated in the hinge housing between the two lateral housing flanks (4a, 4b), - is able to be moved together with the hinge arm and - is able to be pressed against at least one of the two housing flanks (4a, 4b) by means of the spring element. - a hinge arm for connecting to a household appliance door, - a hinge housing with two lateral housing flanks (4a, 4b), - which hinge arm is connected to the hinge housing in a rotatable manner on a first axis of rotation, and - a friction device for obstructing a movement of the hinge arm, characterised in that - the friction device has an adjustable-length cartridge, which - has a spring element for expanding the cartridge, - is accommodated in the hinge housing between the two lateral housing flanks (4a, 4b), - is able to be moved together with the hinge arm and - is able to be pressed against at least one of the two housing flanks (4a, 4b) by means of the spring element.
A beverage cooler (10, 100, 200) comprising: (a) a heat pump having a cooling element; (b) a negative-heat-energy accumulator thermally coupled to said cooling element, said negative-heat-energy accumulator comprising: (i) a heat-energy dispersion arrangement formed from thermally conductive material, and (ii) a quantity of phase-change material having a phase-change temperature above zero Celsius, said phase-change material being deployed in thermal contact with said thermally conductive material; and (c) a conduit defining a circuitous path for carrying the beverage along at least part of a flow path from an inlet to an outlet, said conduit being thermally coupled to said negative-heat-energy accumulator, characterized in that said heat-energy dispersion arrangement comprises an array of heat-transfer fins of sub-millimeter thickness, wherein said array of fins are spaced apart by gaps of no more than 5 millimeters, said gaps being filled with said phase-change material, said heat-dispersion arrangement spanning a volume containing said phase-change material such that thermal coupling of said cooling element to said negative-heat-energy accumulator achieves an absolute thermal resistance between said cooling element and said quantity of phase-change material that is lower than an absolute thermal resistance between said cooling element and beverage within said conduit, thereby rendering said heat pump effective to cool said phase-change material more rapidly than the beverage within said conduit. (a) a heat pump having a cooling element; (b) a negative-heat-energy accumulator thermally coupled to said cooling element, said negative-heat-energy accumulator comprising: (i) a heat-energy dispersion arrangement formed from thermally conductive material, and (ii) a quantity of phase-change material having a phase-change temperature above zero Celsius, said phase-change material being deployed in thermal contact with said thermally conductive material; and (i) a heat-energy dispersion arrangement formed from thermally conductive material, and (ii) a quantity of phase-change material having a phase-change temperature above zero Celsius, said phase-change material being deployed in thermal contact with said thermally conductive material; and (c) a conduit defining a circuitous path for carrying the beverage along at least part of a flow path from an inlet to an outlet, said conduit being thermally coupled to said negative-heat-energy accumulator,
A system comprising: a vibratory separator having an inlet end and a discharge and; a screen (18, 28) connected to the vibratory separator to separate a drilling or wellbore fluid from a drill cuttings in a slurry, wherein the drilling or wellbore fluid is passable through the screen; a pressure differential generating device having an input port, an output port and a fluid injection port, the input port being in fluid communication with the screen (18, 28); and a fluid source in fluid communication with the fluid injection port of the pressure differential generating device, wherein a flow of fluid from the fluid source to the pressure differential generating device causes a pressure differential with respect to a top area and a bottom area of the screen and wherein the generated pressure differential causes the drilling or wellbore fluid to be drawn through the screen and through the pressure differential generating device via the input port and the output port. a vibratory separator having an inlet end and a discharge and; a screen (18, 28) connected to the vibratory separator to separate a drilling or wellbore fluid from a drill cuttings in a slurry, wherein the drilling or wellbore fluid is passable through the screen; a pressure differential generating device having an input port, an output port and a fluid injection port, the input port being in fluid communication with the screen (18, 28); and a fluid source in fluid communication with the fluid injection port of the pressure differential generating device, wherein a flow of fluid from the fluid source to the pressure differential generating device causes a pressure differential with respect to a top area and a bottom area of the screen and wherein the generated pressure differential causes the drilling or wellbore fluid to be drawn through the screen and through the pressure differential generating device via the input port and the output port.
A relay station that relays communications between a plurality of home base stations providing respective home cells and a switching station (10, 10A) via communication interfaces, the relay station configured to group home base stations identified by home base station identifiers having a common upper segment based on the upper segment having a second data length shorter than a first data length and being located sequentially from an uppermost position, the second data length being the same as a data length of a macro base station identifier identifying a macro base station providing a macro cell larger than the home cell, and to set up an individual switching station side communication interface for each of groups according to grouping of the home base stations, the switching station side communication interface being a part of a communication interface used by each of the grouped home base stations to communicate with the switching station (10, 10A), the part being between the relay station and the switching station (10, 10A), and the relay station comprising a communication unit (312, 313, 314, 322) configured to: receive, from a home base station, a primary setup request that includes a home base station identifier identifying the home base station and that requests a processing for setting up a communication interface between the switching station (10, 10A) and the home base station; and upon receiving the primary setup request, send, to the switching station (10, 10A), a secondary setup request that includes the upper segment of the home base station identifier included in the primary setup request as a macro base station identifier identifying the relay station and that requests a processing for setting up the switching station side communication interface, wherein the communication unit is configured not to send the secondary setup request to the switching station (10, 10A), upon receiving the primary setup request, when the upper segment of the home base station identifier included in the primary setup request matches a macro base station identifier included in at least one secondary setup request that has been sent to the switching station (10, 10A) upon setting up a switching station side communication interface that has already been set up.
An electronic appliance of modem, decoder, or analogous type, comprising a fan and an internal casing channeling the air stream generated by the fan, together with a plurality of integrated circuits such as processors (6, 8) fitted with radiators (7, 9) that are mounted in the appliance so that their radiators (7, 9) are situated in register with different portions (PS, PI) of the cross-section of the channeled air stream so that the different radiators (7, 9) are cooled by different portions (PS, PI) of the air stream, the casing also includes one or more side openings for deflecting a fraction of the air from the fan towards components other than the radiators (7, 9) of the integrated circuits (6, 8).
Sensor device for detecting the absence or presence of a liquid at an outlet of a feed line, which serves for feeding a feed substance, which, when exiting from the outlet, has a pressure (p) in the feed line, the pressure having a course over time with a first characteristic when liquid is absent at the outlet and a course over time with a second characteristic when liquid is present at the outlet, characterized in that the sensor device comprises sensing means for sensing the pressure fluctuations in the feed line and evaluation means, which are designed to assign the sensed pressure fluctuations to the first or second characteristic and to generate a corresponding signal, which indicates whether the liquid is absent or present at the feed line outlet, wherein the evaluation means comprise an electronic circuit with a low-pass filter, by means of which interference signals can be filtered out, which have frequencies higher than those of the pressure fluctuations to be sensed.
A distributed amplifier with improved stabilization, comprising: an input transmission circuit; an output transmission circuit; at least one cascode amplifier (116a, 116n) coupled between said input and output transmission circuits, each cascode amplifier including a first common-gate configured transistor coupled to the output transmission circuit, a common-source configured transistor coupled between the input transmission circuit and the common-gate configured transistor, characterized in that each cascode amplifier also comprises: one or more additional common-gate transistors DC-coupled between the first common-gate configured transistor and the common-source configured transistor; and a feedback network including: a non-parasitic first resistance and first capacitance coupled in series between a drain and a gate of the first common-gate configured transistor; and a non-parasitic second resistance and second capacitance coupled in series between a drain and a gate of at least one of the additional common-gate transistors, for increasing the amplifier stability. an input transmission circuit; an output transmission circuit; at least one cascode amplifier (116a, 116n) coupled between said input and output transmission circuits, each cascode amplifier including a first common-gate configured transistor coupled to the output transmission circuit, a common-source configured transistor coupled between the input transmission circuit and the common-gate configured transistor, characterized in that each cascode amplifier also comprises: one or more additional common-gate transistors DC-coupled between the first common-gate configured transistor and the common-source configured transistor; and a feedback network including: a non-parasitic first resistance and first capacitance coupled in series between a drain and a gate of the first common-gate configured transistor; and a non-parasitic second resistance and second capacitance coupled in series between a drain and a gate of at least one of the additional common-gate transistors, for increasing the amplifier stability.