mhurhangee/patent-ind-claim-en huggingface dataset:
A deskinning apparatus for a poultry leg or part of a poultry leg, comprising a conveyor with shackles from which the poultry leg or part of the poultry leg is suspendable by the ankles, and rollers (4', 4") below the conveyor defining a nip (N) between the rollers (4', 4") that are rotatable with respect to each other in mutually opposite directions, which rollers (4', 4") are movable to engage, grip and draw the skin on the poultry leg or part of the poultry leg into said nip (N), and wherein the rollers are arranged to stop rolling after gripping the skin to hold the skin in said nip (N), and wherein the rollers are equipped to subsequently move away from the poultry leg so as to pull the skin loose from the poultry leg , characterized in that the rollers (4', 4") are configured to enable rotation in one direction only so that after the rollers (4', 4") have stopped rolling to hold the skin in said nip (N) between the rollers (4', 4"), said rollers (4', 4") are blocked from rotating in a counter direction.
An air conditioner comprising a refrigerant pipe made of a ductile stainless steel pipe made of stainless steel having an austenite type matrix structure, wherein the ductile stainless steel pipe has the austenite matrix structure of 99% or more and a delta ferrite matrix structure of 1% or less on the basis of a grain area, wherein the stainless steel comprises, percent by weight, C: 0.03% or less, Si: exceeding 0 to 1.7% or less, Mn: 1.5 to 3.5%, Cr: 15.0 to 18.0%, Ni: 7.0 to 9.0%, Cu: 1.0 to 4.0%, Mo: 0.03% or less, P: 0.04% or less, S: 0.04% or less, and N: 0.03% or less, residue: Fe and incidental impurities, and wherein the stainless steel has an average grain diameter of 30 to 60 μm, wherein the ductile stainless steel pipe has a set outer diameter to carry a refrigerant of an air conditioner, wherein R410a is used as the refrigerant, wherein the ductile stainless steel pipe has the outer diameter and the minimum thickness of 41.28 mm, and 1.20 mm; or 54.00 mm, and 1.50 mm.
A heat conductive assembly for transferring heat of an object to be measured to a temperature measuring component , wherein the heat conductive assembly comprises: a thermally conductive substrate having an upper surface and a lower surface , wherein the lower surface of the thermally conductive substrate is adapted to contact the object to be measured, wherein the thermally conductive substrate is configured to be electrically insulating, and an electrically conductive layer fixedly disposed on the upper surface of the thermally conductive substrate ; and the electrically conductive layer comprises a pair of supporting connection portions that are disposed spaced apart from each other and a pair of output connection portions , wherein one of the supporting connection portions and one of the output connection portions are connected to each other, and wherein the other supporting connection portion and the other output connection portion are connected to each other; each of the supporting connection portions is adapted to support the temperature measuring component and to be electrically connected to and be in thermally conductive contact with the temperature measuring component ; and the output connection portions are adapted to be electrically connected to a corresponding pair of connectors configured to output a signal sensed by the temperature measuring component , characterized in that the upper surface of the thermally conductive substrate has a recess; and a portion of the electrically conductive layer is filled into the recess. a thermally conductive substrate having an upper surface and a lower surface , wherein the lower surface of the thermally conductive substrate is adapted to contact the object to be measured, wherein the thermally conductive substrate is configured to be electrically insulating, and an electrically conductive layer fixedly disposed on the upper surface of the thermally conductive substrate ; and the electrically conductive layer comprises a pair of supporting connection portions that are disposed spaced apart from each other and a pair of output connection portions , wherein one of the supporting connection portions and one of the output connection portions are connected to each other, and wherein the other supporting connection portion and the other output connection portion are connected to each other; each of the supporting connection portions is adapted to support the temperature measuring component and to be electrically connected to and be in thermally conductive contact with the temperature measuring component ; and the output connection portions are adapted to be electrically connected to a corresponding pair of connectors configured to output a signal sensed by the temperature measuring component , characterized in that the upper surface of the thermally conductive substrate has a recess; and a portion of the electrically conductive layer is filled into the recess.
Plant for the treatment of a multiphasic fluid comprising at least an emulsion of two liquid phases of different respective densities, said plant comprising a circuit within which said multiphasic fluid is intended to circulate, said circuit comprising a main settler intended to separate at least said liquid phases, said main settler comprising at least one inlet through which said multiphasic fluid is intended to enter into the main settler and at least one outlet through which said fluid is intended to be discharged from the main settler , said plant being characterized in that it also comprises a tool for the characterization of said multiphasic fluid, said characterization tool comprising at least: - one inlet opening and one outlet opening respectively connected to said circuit upstream of said inlet and upstream of said outlet with respect to the flowing direction of said multiphasic fluid within the circuit , - an analysis settler arranged between said inlet and outlet openings and adapted to separate at least said liquid phases to obtain so-called separated phases, - a means for combining said separated phases, said plant being designed to divert a fraction of the flow of multiphasic fluid feeding the main settler towards and into the characterization tool , so that the main settler and the characterization tool are concomitantly fed with multiphasic fluid, the multiphasic fluid entering into the characterization tool being hence substantially similar to the multiphasic fluid entering into the main settler , wherein said fraction of the fluid circulates within the tool entering through said inlet opening to pass through said analysis settler so that said phases are separated then discharged through said outlet opening into said circuit , the gaseous phase present within the emulsion being at least partially pre-separated in the characterization tool , before the multiphasic fluid enters into the analysis settler , said combining means being designed to combine said separated phases downstream of said analysis settler and upstream of said outlet with respect to the flowing direction of the fluid. - one inlet opening and one outlet opening respectively connected to said circuit upstream of said inlet and upstream of said outlet with respect to the flowing direction of said multiphasic fluid within the circuit , - an analysis settler arranged between said inlet and outlet openings and adapted to separate at least said liquid phases to obtain so-called separated phases, - a means for combining said separated phases,
A method of measuring an acceleration due to a gravitational field using one or more Bose-Einstein condensates, BECs, wherein the one or more BECs include: a first atomic field mode comprising collective oscillations within the at least one BEC propagating in a first direction; and a second atomic field mode comprising collective oscillations within the at least one BEC propagating in a second direction different to the first direction; wherein the method comprises: measuring a phase difference between the first mode and the second mode; and using the measured phase difference to measure the acceleration due to the gravitational field. wherein the one or more BECs include: a first atomic field mode comprising collective oscillations within the at least one BEC propagating in a first direction; and a second atomic field mode comprising collective oscillations within the at least one BEC propagating in a second direction different to the first direction; a first atomic field mode comprising collective oscillations within the at least one BEC propagating in a first direction; and a second atomic field mode comprising collective oscillations within the at least one BEC propagating in a second direction different to the first direction; wherein the method comprises: measuring a phase difference between the first mode and the second mode; and using the measured phase difference to measure the acceleration due to the gravitational field. measuring a phase difference between the first mode and the second mode; and using the measured phase difference to measure the acceleration due to the gravitational field.
An airbag base cloth in which at least one surface of a fabric is covered with a multilayer film having an adhesive layer, wherein an average value of warp and weft edgecomb resistance of the base cloth, determined as described in the description, is from 450 N/2.5 cm or more to 1000 N/2.5 cm or less, wherein a high-pressure air permeability of 300 kPa of the airbag base cloth, determined as described in the description, is 1.0 L/cm 2 /min or less, wherein the adhesive layer of the multilayer film contains a polyamide-based resin, and wherein the multi-layer film covering the fabric is composed of at least two layers, of which the layer which adheres to the fabric is the adhesive layer.
Process for manufacturing a structural component of a tyre for vehicle wheels, comprising: - providing at least one elongated element comprising at least one metallic wire twisted together with at least one textile yarn ; - removing said at least one textile yarn from said at least one elongated element to form a metallic reinforcing cord in which said at least one metallic wire extends along a helical path; and - incorporating said metallic reinforcing cord in a piece of elastomeric material to make said structural component of the tyre . - providing at least one elongated element comprising at least one metallic wire twisted together with at least one textile yarn ; - removing said at least one textile yarn from said at least one elongated element to form a metallic reinforcing cord in which said at least one metallic wire extends along a helical path; and - incorporating said metallic reinforcing cord in a piece of elastomeric material to make said structural component of the tyre .
A consumable electrode-fed welding-type system , comprising: - a welding-type power source configured to provide welding-type current to a welding-type circuit, the welding-type circuit comprising a welding-type electrode and a first contact tip of a welding torch ; - an electrode preheating circuit configured to provide preheating current through a first portion of the welding-type electrode via a second contact tip of the welding torch ; and - an electrode preheat control circuit to monitor a voltage drop across a second portion of the welding-type electrode and to adjust at least one of the welding-type current or the preheating current based on the voltage drop, the second portion of the welding-type electrode comprising at least part of the first portion of the welding-type electrode , characterized by - a preheat controller configured to control the preheating current based on a hydrogen reduction goal, and - a hydrogen sensor configured to measure hydrogen at least one of in the electrode wire or proximate the electrode wire, the preheat controller configured to control the preheating current based on a hydrogen measurement from the hydrogen sensor . - a welding-type power source configured to provide welding-type current to a welding-type circuit, the welding-type circuit comprising a welding-type electrode and a first contact tip of a welding torch ; - an electrode preheating circuit configured to provide preheating current through a first portion of the welding-type electrode via a second contact tip of the welding torch ; and - an electrode preheat control circuit to monitor a voltage drop across a second portion of the welding-type electrode and to adjust at least one of the welding-type current or the preheating current based on the voltage drop, the second portion of the welding-type electrode comprising at least part of the first portion of the welding-type electrode , characterized by - a preheat controller configured to control the preheating current based on a hydrogen reduction goal, and - a hydrogen sensor configured to measure hydrogen at least one of in the electrode wire or proximate the electrode wire, the preheat controller configured to control the preheating current based on a hydrogen measurement from the hydrogen sensor .
A high-temperature air conditioning unit, comprising a compressor , a condenser , a throttling and cooling pipeline assembly, and an evaporator , which are connected in sequence to form a cycle; the throttling and cooling pipeline assembly includes throttle valves, a medium-pressure pipeline, a low-pressure pipeline, and a booster pipeline; the throttle valves are configured to enable a pressure of refrigerant in the low-pressure pipeline to be lower than a pressure of refrigerant in the medium-pressure pipeline; the medium-pressure pipeline and the low-pressure pipeline are connected in parallel; components to be cooled are disposed in the low-pressure pipeline; an outlet of the low-pressure pipeline is connected to the booster pipeline, and an outlet of the booster pipeline is connected to the evaporator ; and a boosting device is arranged in the booster pipeline; characterized in that , the medium-pressure pipeline and the low-pressure pipeline are connected in parallel between the condenser and the evaporator ; the throttle valves include a first throttle valve disposed in the medium-pressure pipeline, and one or a plurality of second throttle valves connected in series in the low-pressure pipeline; a pressure regulation capacity of the one second throttle valve or a pressure regulation capacity of the plurality of second throttle valves connected in series is greater than a pressure regulation capacity of the first throttle valve ; the components to be cooled are connected in series downstream of the one or the plurality of the second throttle valves . the medium-pressure pipeline and the low-pressure pipeline are connected in parallel between the condenser and the evaporator ; the throttle valves include a first throttle valve disposed in the medium-pressure pipeline, and one or a plurality of second throttle valves connected in series in the low-pressure pipeline; a pressure regulation capacity of the one second throttle valve or a pressure regulation capacity of the plurality of second throttle valves connected in series is greater than a pressure regulation capacity of the first throttle valve ; the components to be cooled are connected in series downstream of the one or the plurality of the second throttle valves .
A handover processing method, comprising: receiving , by a first target base station, a handover request message sent by a source base station, the handover request message comprises measurement report information of a user equipment and radio access bear, RAB, information of the user equipment; sending , by the first target base station, a first message, according to the handover request message, to a second target base station to notify the second target base station that a handover of part or all of a service of a user equipment to the second target base station is to be performed, the first message includes: information of at least one service of the user equipment; receiving, by the first target base station, a second message from the second target base station, wherein the second message is used for indicating information regarding whether the handover of the part or all of the service of the user equipment to the second target base station is accepted by the second target base station; and sending , by the first target base station, a handover request acknowledge message to the source base station, wherein the handover request acknowledge message is used for notifying the source base station to hand over the user equipment to at least one target cell of the first target base station and at least one target cell of the second target base station. receiving , by a first target base station, a handover request message sent by a source base station, the handover request message comprises measurement report information of a user equipment and radio access bear, RAB, information of the user equipment; sending , by the first target base station, a first message, according to the handover request message, to a second target base station to notify the second target base station that a handover of part or all of a service of a user equipment to the second target base station is to be performed, the first message includes: information of at least one service of the user equipment; receiving, by the first target base station, a second message from the second target base station, wherein the second message is used for indicating information regarding whether the handover of the part or all of the service of the user equipment to the second target base station is accepted by the second target base station; and sending , by the first target base station, a handover request acknowledge message to the source base station, wherein the handover request acknowledge message is used for notifying the source base station to hand over the user equipment to at least one target cell of the first target base station and at least one target cell of the second target base station.
A method for processing spectral image data, comprising: identifying two endmembers represented in the spectral image data, estimating abundance fraction values of the identified endmembers wherein the abundance fraction values are indicative of the proportion of the two identified endmembers in each pixel of the spectral image data, reconstructing the spectral image based on the estimated abundance fraction values and the identified endmembers, determining a difference image between the initial spectral image and the reconstructed image, applying principal component analysis -PCA- to the difference image, wherein applying PCA comprises performing one or more iterations of a PCA algorithm, storing a linear function and associated vectors generated by each iteration of the PCA algorithm, storing the abundance fraction values and endmembers, compressing the linear function and the associated vectors, the abundance image and the two identified endmembers. identifying two endmembers represented in the spectral image data, estimating abundance fraction values of the identified endmembers wherein the abundance fraction values are indicative of the proportion of the two identified endmembers in each pixel of the spectral image data, reconstructing the spectral image based on the estimated abundance fraction values and the identified endmembers, determining a difference image between the initial spectral image and the reconstructed image, applying principal component analysis -PCA- to the difference image, wherein applying PCA comprises performing one or more iterations of a PCA algorithm, storing a linear function and associated vectors generated by each iteration of the PCA algorithm, storing the abundance fraction values and endmembers, compressing the linear function and the associated vectors, the abundance image and the two identified endmembers.
A valve for a gas cooker, the valve comprising a valve body and a valve core rotatably disposed in the valve body , wherein the valve core is provided with a gas inlet channel in communication with a gas source, and a sidewall of the valve core is provided with an inner ring fire gas outlet and an outer ring fire gas outlet penetrating the sidewall, characterized in that , the valve body is provided with an inner ring main gas outlet channel and an inner ring fine-tuning channel corresponding to the inner ring fire gas outlet , and the valve body is provided with an outer ring main gas outlet channel and an outer ring fine-tuning channel corresponding to the outer ring fire gas outlet .
A method of synthesizing methanol, the method comprising: introducing a syngas reactor feed stream from a feed gas source comprising hydrogen gas (H 2 ) and carbon oxides of CO and CO 2 into a methanol synthesis reactor to form a reactor product stream comprising methanol, water, and unreacted carbon oxides of CO and CO 2 and hydrogen gas; separating methanol and water from the reactor product stream leaving an unreacted gas stream; providing at least one water gas shift (WGS) unit for converting CO and water to a WGS product stream of CO 2 and hydrogen gas and performing operation A and optionally operation B, wherein: A is introducing at least a portion of fresh syngas reactor feed from the feed gas source into the at least one WGS unit to provide a WGS product stream of CO 2 and hydrogen gas; and B is introducing at least a portion of the unreacted gas stream and steam into the at least one WGS unit for converting unreacted CO and water to a WGS product stream of CO 2 and hydrogen gas; and introducing at least a portion of the WGS product stream from operation A and optionally operation B into a hydrogen recovery unit for producing a hydrogen-rich stream, at least a portion of the hydrogen-rich stream being recycled and introduced into the methanol synthesis reactor as part of the reactor feed stream wherein said feed gas source comprises the product of catalytic partial oxidation of natural gas. introducing a syngas reactor feed stream from a feed gas source comprising hydrogen gas (H 2 ) and carbon oxides of CO and CO 2 into a methanol synthesis reactor to form a reactor product stream comprising methanol, water, and unreacted carbon oxides of CO and CO 2 and hydrogen gas; separating methanol and water from the reactor product stream leaving an unreacted gas stream; providing at least one water gas shift (WGS) unit for converting CO and water to a WGS product stream of CO 2 and hydrogen gas and performing operation A and optionally operation B, wherein: A is introducing at least a portion of fresh syngas reactor feed from the feed gas source into the at least one WGS unit to provide a WGS product stream of CO 2 and hydrogen gas; and B is introducing at least a portion of the unreacted gas stream and steam into the at least one WGS unit for converting unreacted CO and water to a WGS product stream of CO 2 and hydrogen gas; and A is introducing at least a portion of fresh syngas reactor feed from the feed gas source into the at least one WGS unit to provide a WGS product stream of CO 2 and hydrogen gas; and B is introducing at least a portion of the unreacted gas stream and steam into the at least one WGS unit for converting unreacted CO and water to a WGS product stream of CO 2 and hydrogen gas; and introducing at least a portion of the WGS product stream from operation A and optionally operation B into a hydrogen recovery unit for producing a hydrogen-rich stream, at least a portion of the hydrogen-rich stream being recycled and introduced into the methanol synthesis reactor as part of the reactor feed stream wherein said feed gas source comprises the product of catalytic partial oxidation of natural gas.