mhurhangee/patent-ind-claim-en huggingface dataset:
A computer-implemented method for tag networking at a network device in a network comprising a plurality of network devices, the method comprising: receiving, from a client , an inquiry to determine if one or more network devices are configured to handle a tag ; transmitting a response to the inquiry to the client indicating that the one or more network devices are configured to handle the tag ; receiving, from the client , a packet of the traffic flow, wherein the packet includes the tag that is located among data of the packet, wherein the tag was assigned to the packet by a client in response to the inquiry; reading the packet to identify the tag that is located among the data of the packet; performing a tag lookup to find logic that is associated with the tag ; and applying the logic to the packet in response to performing the tag lookup, wherein the logic includes instructions for carrying out a service of the network. receiving, from a client , an inquiry to determine if one or more network devices are configured to handle a tag ; transmitting a response to the inquiry to the client indicating that the one or more network devices are configured to handle the tag ; receiving, from the client , a packet of the traffic flow, wherein the packet includes the tag that is located among data of the packet, wherein the tag was assigned to the packet by a client in response to the inquiry; reading the packet to identify the tag that is located among the data of the packet; performing a tag lookup to find logic that is associated with the tag ; and applying the logic to the packet in response to performing the tag lookup, wherein the logic includes instructions for carrying out a service of the network.
A photoelectric conversion element comprising: a photoelectric conversion layer that is formed between a first electrode layer and a second electrode layer, wherein the photoelectric conversion layer contains Group I elements of Cu and Ag, Group III elements of In and Ga, and Group VI elements of Se and S, the photoelectric conversion layer has a front surface-side region that is positioned on a light-receiving surface side, a rear surface-side region that is positioned on a rear surface side of a light-receiving surface, and an intermediate region that is positioned between the front surface-side region and the rear surface-side region, a portion at which a minimum value of a band gap appears in a thickness direction of the photoelectric conversion layer is included in the intermediate region, when a ratio (Ag/(non-Ag I + III + VI)) of a mole amount of Ag to a sum of mole amounts of the Group I elements other than Ag, the Group III elements, and the Group VI elements is defined as an Ag concentration, a portion at which a maximum value of the Ag concentration appears in the thickness direction of the photoelectric conversion layer is included in the intermediate region, and wherein the maximum value of the Ag concentration is within a range of 0.00519 to 0.0140. a photoelectric conversion layer that is formed between a first electrode layer and a second electrode layer, wherein the photoelectric conversion layer contains Group I elements of Cu and Ag, Group III elements of In and Ga, and Group VI elements of Se and S, the photoelectric conversion layer has a front surface-side region that is positioned on a light-receiving surface side, a rear surface-side region that is positioned on a rear surface side of a light-receiving surface, and an intermediate region that is positioned between the front surface-side region and the rear surface-side region, a portion at which a minimum value of a band gap appears in a thickness direction of the photoelectric conversion layer is included in the intermediate region, when a ratio (Ag/(non-Ag I + III + VI)) of a mole amount of Ag to a sum of mole amounts of the Group I elements other than Ag, the Group III elements, and the Group VI elements is defined as an Ag concentration, a portion at which a maximum value of the Ag concentration appears in the thickness direction of the photoelectric conversion layer is included in the intermediate region, and wherein the maximum value of the Ag concentration is within a range of 0.00519 to 0.0140.
A degassing method for lithium battery cell, comprising the following steps: a) providing a lithium battery cell comprising a sealed bag , an electrolyte solution being filled in the sealed bag and a remnant gas being contained in the sealed bag ; b) providing a negative pressure on the external surface of the sealed bag to inflate the sealed bag and to decompress the sealed bag and a part of the electrolyte solution being thereby vaporized, the remnant gas being separated from the liquid electrolyte solution and mixed with the vaporized electrolyte solution to form a mixed gas ; characterized in that in step a), a degassing tube being arranged on an external surface of the sealed bag , an end of the degassing tube communicating with a space in the sealed bag , the other end of the degassing tube provided in the step a is sealed; a step c) following step b): c) cutting the degassing tube and the mixed gas being thereby allowed to flow into the degassing tube , extracting the mixed gas via the degassing tube , thereby the vaporized electrolyte solution being pressurized to be liquefied in the degassing tube , and the remnant gas meanwhile being discharged via the degassing tube . a) providing a lithium battery cell comprising a sealed bag , an electrolyte solution being filled in the sealed bag and a remnant gas being contained in the sealed bag ; b) providing a negative pressure on the external surface of the sealed bag to inflate the sealed bag and to decompress the sealed bag and a part of the electrolyte solution being thereby vaporized, the remnant gas being separated from the liquid electrolyte solution and mixed with the vaporized electrolyte solution to form a mixed gas ; characterized in that in step a), a degassing tube being arranged on an external surface of the sealed bag , an end of the degassing tube communicating with a space in the sealed bag , the other end of the degassing tube provided in the step a is sealed; a step c) following step b): in step a), a degassing tube being arranged on an external surface of the sealed bag , an end of the degassing tube communicating with a space in the sealed bag , the other end of the degassing tube provided in the step a is sealed; a step c) following step b): c) cutting the degassing tube and the mixed gas being thereby allowed to flow into the degassing tube , extracting the mixed gas via the degassing tube , thereby the vaporized electrolyte solution being pressurized to be liquefied in the degassing tube , and the remnant gas meanwhile being discharged via the degassing tube .
Method for the substrate-free rooting of a plurality of unrooted cuttings, comprising the steps: - providing a carrier strip having a plurality of cavities which are open at the top for receiving in each case a rootless cutting in each cavity, wherein each cavity is provided with openings at least in a region associated with a cutting base, - inserting an unrooted cutting into each cavity, - applying a water-resistant, water- and air-permeable climate membrane to the carrier strip provided with the cuttings in such a manner that at least the region of each cavity of the carrier strip that is associated with the cutting base is enclosed by the climate membrane, - arranging the carrier strip provided with the climate membrane in a rooting station and leaving the cuttings to root for a predetermined period of time, with regular misting, and - at the end of the predetermined rooting period, dispatching the carrier strip with the rooted cuttings for further processing, or separating the carrier strip into sections each having at least one rooted cutting and dispatching the sections for further processing. - providing a carrier strip having a plurality of cavities which are open at the top for receiving in each case a rootless cutting in each cavity, wherein each cavity is provided with openings at least in a region associated with a cutting base, - inserting an unrooted cutting into each cavity, - applying a water-resistant, water- and air-permeable climate membrane to the carrier strip provided with the cuttings in such a manner that at least the region of each cavity of the carrier strip that is associated with the cutting base is enclosed by the climate membrane, - arranging the carrier strip provided with the climate membrane in a rooting station and leaving the cuttings to root for a predetermined period of time, with regular misting, and - at the end of the predetermined rooting period, dispatching the carrier strip with the rooted cuttings for further processing, or separating the carrier strip into sections each having at least one rooted cutting and dispatching the sections for further processing.
An assistance system for a suspension device , the suspension device comprising a tube device , a tube controller and a motion driving device, the motion driving device being capable of driving the suspension device to move along a first coordinate system, and the assistance system comprising: a measurement device disposed between the tube device and the tube controller so as to obtain an initial force of an operator, wherein the initial force comprises the magnitude and direction of a force along a second coordinate system in which the measurement device is located; and a control device , comprising: a calibration unit used for calibrating the initial force to obtain a calibrated force; and a calculation unit adapted for performing a coordinate transformation on the calibrated force to obtain a torque value corresponding to the first coordinate system, and sending the torque value to the motion driving device to enable the motion driving device to provide assistance on the basis of the torque value. a measurement device disposed between the tube device and the tube controller so as to obtain an initial force of an operator, wherein the initial force comprises the magnitude and direction of a force along a second coordinate system in which the measurement device is located; and a control device , comprising: a calibration unit used for calibrating the initial force to obtain a calibrated force; and a calculation unit adapted for performing a coordinate transformation on the calibrated force to obtain a torque value corresponding to the first coordinate system, and sending the torque value to the motion driving device to enable the motion driving device to provide assistance on the basis of the torque value. a calibration unit used for calibrating the initial force to obtain a calibrated force; and a calculation unit adapted for performing a coordinate transformation on the calibrated force to obtain a torque value corresponding to the first coordinate system, and sending the torque value to the motion driving device to enable the motion driving device to provide assistance on the basis of the torque value.
A thermally-conductive gap filler comprising an aziridino-functional polyether polymer and at least 30% by volume of a thermally-conductive filler based on the total volume of the gap filler, characterized in that at least one polyether polymer has the formula: wherein: R1 is an alkylene group; each R2 is independently selected from the group consisting of alkylene groups having 2 to 6 carbon atoms; and n is an integer selected such that the molecular weight of the polyether polymer is between 2000 and 10 000 grams per mole. each R2 is independently selected from the group consisting of alkylene groups having 2 to 6 carbon atoms; and n is an integer selected such that the molecular weight of the polyether polymer is between 2000 and 10 000 grams per mole.
Procedure for the cultivation of mushrooms comprising at least the steps of: - preparing (I) at least a bed of at least a substrate for the growth of mushrooms containing mycelia; - wetting (II) said substrate with dampening water ; - growing (III) said mushrooms ; and - harvesting (IV) said mushrooms ; - mixing water with chlorine dioxide to obtain said dampening water ; characterized by the fact that said wetting (II) comprises the use of a daily amount of said dampening water comprised between 10 and 20 liters per m 2 of said substrate . - preparing (I) at least a bed of at least a substrate for the growth of mushrooms containing mycelia; - wetting (II) said substrate with dampening water ; - growing (III) said mushrooms ; and - harvesting (IV) said mushrooms ; - mixing water with chlorine dioxide to obtain said dampening water ; characterized by the fact that said wetting (II) comprises the use of a daily amount of said dampening water comprised between 10 and 20 liters per m 2 of said substrate .
A thermoplastic molding material comprising A) 10 to 98 wt% of a thermoplastic polyurethane, B) 1 to 50 wt% of a thermoplastic pyrrolidone-containing polyamide comprising units derived from 2-pyrrolidone, C) 0 to 40 wt% of a halogen-free flame retardant, D) 0 to 60 wt% of a fibrous or particulate filler or mixtures thereof, E) 0 to 30 wt% of further additives, wherein the weight percentages A) to E) sum to 100%. A) 10 to 98 wt% of a thermoplastic polyurethane, B) 1 to 50 wt% of a thermoplastic pyrrolidone-containing polyamide comprising units derived from 2-pyrrolidone, C) 0 to 40 wt% of a halogen-free flame retardant, D) 0 to 60 wt% of a fibrous or particulate filler or mixtures thereof, E) 0 to 30 wt% of further additives,
A method for recovering petroleum from a subterranean formation, the method comprising injecting an aqueous solution into the subterranean formation to displace petroleum wherein the aqueous solution comprises: a. a nonionic surfactant of structure (I): where R 1 is a linear or branched alkyl with from one to 23 carbons; R 2 is selected from hydrogen and linear or branched alkyls with from one to 23 carbons provided that the total number of carbons in the combination of R 1 and R 2 is in a range of 7 to 23; (AO) is selected from a group consisting of CH(CH 3 )CH 2 O and CH(CH 2 CH 3 )CH 2 O; m is a number from zero to 10; n is a number from 7 to 20; and G is hydrogen, wherein the (R 1 )R 2 CH- group contains 8 to 20 carbons; and b. an anionic surfactant of structure (II): where R 3 and R 4 are each independently selected from a group consisting of hydrogen and linear and branched alkyl groups with one to 16 carbons; and M is selected from sodium, potassium, lithium and ammonium. a. a nonionic surfactant of structure (I): where R 1 is a linear or branched alkyl with from one to 23 carbons; R 2 is selected from hydrogen and linear or branched alkyls with from one to 23 carbons provided that the total number of carbons in the combination of R 1 and R 2 is in a range of 7 to 23; (AO) is selected from a group consisting of CH(CH 3 )CH 2 O and CH(CH 2 CH 3 )CH 2 O; m is a number from zero to 10; n is a number from 7 to 20; and G is hydrogen, wherein the (R 1 )R 2 CH- group contains 8 to 20 carbons; and b. an anionic surfactant of structure (II): where R 3 and R 4 are each independently selected from a group consisting of hydrogen and linear and branched alkyl groups with one to 16 carbons; and M is selected from sodium, potassium, lithium and ammonium.
Use of an applanation tonometer system comprising an optical system for reducing an error of a measurement of internal pressure inside a body , wherein the error is caused by a layer of fluid present at a portion of a shell of the body , wherein the portion of the shell is brought into contact with the optical system, the optical system including an optically-transparent member that has a curved front surface being brought in contact with a surface of the body during the measurement and configured to transmit light to and from the surface of the body , wherein the shell encloses an internal volume of the body , and wherein the use comprises: pressing an axial portion of the curved front surface against said portion of the shell to apply a force to the shell and to define a first surface area of contact between the curved front surface and the portion of the shell , wherein the axial portion is centered with respect to a longitudinal axis of the optically-transparent member; and assessing a value of said internal pressure based on an optical image formed with light that has traversed the curved front surface twice and that has been reflected from the first surface area of contact, characterized in that said pressing takes place while keeping an average contact angle between the front surface and the portion of the shell within a range from about 20 degrees to about 35 degrees as a result of having the curved front surface being not planar. pressing an axial portion of the curved front surface against said portion of the shell to apply a force to the shell and to define a first surface area of contact between the curved front surface and the portion of the shell , wherein the axial portion is centered with respect to a longitudinal axis of the optically-transparent member; and assessing a value of said internal pressure based on an optical image formed with light that has traversed the curved front surface twice and that has been reflected from the first surface area of contact, characterized in that said pressing takes place while keeping an average contact angle between the front surface and the portion of the shell within a range from about 20 degrees to about 35 degrees as a result of having the curved front surface being not planar.
An antenna structure , comprising: a radiative antenna element disposed in a first conductive layer ; a reflector ground plane disposed in a second conductive layer under the first conductive layer ; a feeding network comprising a transmission line disposed in a third conductive layer under the second conductive layer , wherein a feeding terminal is disposed to electrically couple one end of the transmission line to the radiative antenna element ; and at least one coupling element disposed in proximity to the feeding terminal , wherein the at least one coupling element is capacitively coupled with the feeding terminal , wherein the radiative antenna element comprises a grid array antenna, wherein each of the at least one coupling element comprises a conductive pad and a connector that electrically couples the conductive pad to the reflector ground plane , and wherein the at least one conductive pad is disposed in the first conductive layer and is coplanar with the radiative antenna element , wherein the grid array antenna comprises rectangular meshes of microstrip lines comprising long sides and short sides . a radiative antenna element disposed in a first conductive layer ; a reflector ground plane disposed in a second conductive layer under the first conductive layer ; a feeding network comprising a transmission line disposed in a third conductive layer under the second conductive layer , wherein a feeding terminal is disposed to electrically couple one end of the transmission line to the radiative antenna element ; and at least one coupling element disposed in proximity to the feeding terminal , wherein the at least one coupling element is capacitively coupled with the feeding terminal , wherein the radiative antenna element comprises a grid array antenna, wherein each of the at least one coupling element comprises a conductive pad and a connector that electrically couples the conductive pad to the reflector ground plane , and wherein the at least one conductive pad is disposed in the first conductive layer and is coplanar with the radiative antenna element , wherein the grid array antenna comprises rectangular meshes of microstrip lines comprising long sides and short sides .
Nebulization device for medical mixture, of the type comprising a containing ampoule for said medical mixture, comprising an upper component and a lower component connected to each other; at least one emission opening of said nebulized medical mixture from said ampoule , and at least one entry window for the intake of air within said ampoule ; at least one atomizer for the intake of pressurized gas, within said lower component of said ampoule , said atomizer being surmounted by said upper component at least one, preferably two selection side windows on said upper component , an opening of said selection side windows being shielded by shielding means , moved by a command shaft characterized in that said shielding means are axially moved by said command shaft through a shielding selector coupled and linked to a control knob connected to said command shaft such to control the flow coming from the atomizer ; the coupling between said command shaft and said shielding selector being obtained by a threaded coupling. a containing ampoule for said medical mixture, comprising an upper component and a lower component connected to each other; at least one emission opening of said nebulized medical mixture from said ampoule , and at least one entry window for the intake of air within said ampoule ; at least one atomizer for the intake of pressurized gas, within said lower component of said ampoule , said atomizer being surmounted by said upper component at least one, preferably two selection side windows on said upper component , an opening of said selection side windows being shielded by shielding means , moved by a command shaft characterized in that said shielding means are axially moved by said command shaft through a shielding selector coupled and linked to a control knob connected to said command shaft such to control the flow coming from the atomizer ; the coupling between said command shaft and said shielding selector being obtained by a threaded coupling.
Wind generation means comprising a plurality of wind generation units provided next to each other along at least a first and a second directions so as to form a wind generation wall , and at least one control unit adapted to control said wind generation units so as to generate a specific wind profile in an air flow path, wherein the at least one control unit is adapted to control each wind generation unit of the plurality of wind generation units individually so as to vary a generated wind physical property of said each wind generation unit along said first and second directions and characterized in that the wind generating means comprises pivoting means so as to be movable so as to modify the direction of the air flow path.
A method for the detection of Acrylamide precursors in raw potatoes comprising: illuminating at least one region of a raw potato's surface with an illumination light beam; measuring the intensity of illumination light scattered by the potato; generating a detection signal based on the measured intensity of scattered illumination light; comparing the detection signal to a predefined threshold; and classifying the potato as having a high Acrylamide precursor concentration if the detection signal exceeds the predefined threshold; characterized in that the predefined threshold is calculated by measuring a scatter pattern of at least one predetermined healthy potato inducing an Acrylamide concentration less than 800 ppb during high temperature processing and at least one potato inducing an Acrylamide concentration greater than 800 ppb during high temperature processing. illuminating at least one region of a raw potato's surface with an illumination light beam; measuring the intensity of illumination light scattered by the potato; generating a detection signal based on the measured intensity of scattered illumination light; comparing the detection signal to a predefined threshold; and classifying the potato as having a high Acrylamide precursor concentration if the detection signal exceeds the predefined threshold; characterized in that the predefined threshold is calculated by measuring a scatter pattern of at least one predetermined healthy potato inducing an Acrylamide concentration less than 800 ppb during high temperature processing and at least one potato inducing an Acrylamide concentration greater than 800 ppb during high temperature processing.