mhurhangee/patent-ind-claim-en huggingface dataset:
Foldable ladder comprising: - an interface frame comprising a pair of tracks associable with a platform of a vehicle , said tracks extending along a main longitudinal direction (X-X), - a summit portion slidably housed in said interface frame , along said main longitudinal direction (X-X), provided with a pair of rails at least partially sliding on said tracks , - a first climbing element , provided with uprights and a first step , and hinged to said summit portion at first transverse hinges , directed along a transverse direction (X-X) perpendicular to the main longitudinal direction (Y-Y), - a second climbing element , provided with uprights and a second step , and hinged to said first climbing element at second transverse hinges , directed parallel to said transverse direction (X-X), - the second climbing element being foldable on said first climbing element from a front access or climbing side to said steps , so as to pass from an opening configuration, in which the uprights of the second climbing element are arranged parallel and adjacent to the uprights of the first step , to a closing configuration in which the uprights of the second climbing element are arranged paired and superimposed on the uprights of the first climbing element , characterized in that the rails of the summit portion , at the front ends , are provided with front gaps adapted to make an abutment with respective transverse pins associated with the uprights of the first climbing element . - an interface frame comprising a pair of tracks associable with a platform of a vehicle , said tracks extending along a main longitudinal direction (X-X), - a summit portion slidably housed in said interface frame , along said main longitudinal direction (X-X), provided with a pair of rails at least partially sliding on said tracks , - a first climbing element , provided with uprights and a first step , and hinged to said summit portion at first transverse hinges , directed along a transverse direction (X-X) perpendicular to the main longitudinal direction (Y-Y), - a second climbing element , provided with uprights and a second step , and hinged to said first climbing element at second transverse hinges , directed parallel to said transverse direction (X-X), - the second climbing element being foldable on said first climbing element from a front access or climbing side to said steps , so as to pass from an opening configuration, in which the uprights of the second climbing element are arranged parallel and adjacent to the uprights of the first step , to a closing configuration in which the uprights of the second climbing element are arranged paired and superimposed on the uprights of the first climbing element ,
An electrochemical cell, comprising: an electrode , wherein the electrode comprises: a first current collector ; a first electroactive material layer ; and a first release layer having an adhesive affinity to at least one component of the electrochemical cell greater than its adhesive affinity to a substrate on which at least a portion of the electrochemical cell was fabricated, wherein the first current collector is positioned between the first electroactive material layer and the first release layer, characterized in that the first electroactive material comprises lithium and the first release layer comprises a polymeric material including pendant hydroxyl functional groups and wherein the first release layer is formed from a solution comprising the polymeric material including pendant hydroxyl functional groups and a solvent comprising an alcohol. a first current collector ; a first electroactive material layer ; and a first release layer having an adhesive affinity to at least one component of the electrochemical cell greater than its adhesive affinity to a substrate on which at least a portion of the electrochemical cell was fabricated, wherein the first current collector is positioned between the first electroactive material layer and the first release layer, characterized in that the first electroactive material comprises lithium and the first release layer comprises a polymeric material including pendant hydroxyl functional groups and wherein the first release layer is formed from a solution comprising the polymeric material including pendant hydroxyl functional groups and a solvent comprising an alcohol.
A ventilated seat trim cover for a vehicle seat, comprising: a stacked assembly of an upper textile layer of one or more of a fabric, perforated vinyl, and/or perforated leather, an air permeable thermo-moldable polyurethane cellular foam interlayer , a first thermoplastic polyurethane (TPU) film layer , and a scrim backing layer of a woven or non-woven textile; wherein the stacked assembly is compression molded in a 3-dimensional mold while at least a portion of the foam interlayer is heated to a temperature of between 104 °C to 127 °C to form the ventilated seat trim cover ; wherein the first TPU film layer prevents airflow passing through a bottom surface of the ventilated seat trim cover ; and wherein airflow passing between the foam interlayer and an external environment adjacent the upper textile layer passes through the upper textile layer . a stacked assembly of an upper textile layer of one or more of a fabric, perforated vinyl, and/or perforated leather, an air permeable thermo-moldable polyurethane cellular foam interlayer , a first thermoplastic polyurethane (TPU) film layer , and a scrim backing layer of a woven or non-woven textile; wherein the stacked assembly is compression molded in a 3-dimensional mold while at least a portion of the foam interlayer is heated to a temperature of between 104 °C to 127 °C to form the ventilated seat trim cover ; wherein the first TPU film layer prevents airflow passing through a bottom surface of the ventilated seat trim cover ; and wherein airflow passing between the foam interlayer and an external environment adjacent the upper textile layer passes through the upper textile layer .
A projectile comprising a shell and a propulsion element , said propulsion element comprising: a first rotating shaft able to be set in rotation relative to the shell about an axis ; and a first screw able to be driven in rotation by said first rotating shaft; characterized in that : - the first screw and the shell respectively comprise a first stop and a first counter-stop opposite one another; - the first screw is able to slide axially along the first rotating shaft between a first position, in which a first non-zero clearance is provided between the first stop and counter-stop, and a second position, in which the first stop and counter-stop are in contact; - the propulsion element further includes a first elastic return element , which is reversibly deformable along the axis between a first and a second state of stress, which first and second states correspond respectively to the first and second positions of the first screw , the stress of the first state being lower than the stress of the second state. - the first screw and the shell respectively comprise a first stop and a first counter-stop opposite one another; - the first screw is able to slide axially along the first rotating shaft between a first position, in which a first non-zero clearance is provided between the first stop and counter-stop, and a second position, in which the first stop and counter-stop are in contact; - the propulsion element further includes a first elastic return element , which is reversibly deformable along the axis between a first and a second state of stress, which first and second states correspond respectively to the first and second positions of the first screw , the stress of the first state being lower than the stress of the second state.
A method for monitoring the sensor function of a potentiometric sensor, the potentiometric sensor comprising - an ion-sensitive electrode including an ion-sensitive glass bulb , - a reference electrode assembly including a reference electrode , - an ion-sensing circuit having a first terminal connected to the ion-sensitive electrode and a second terminal connected to the reference electrode , said circuit being designed to measure the potential difference (V1) that develops in the loop between the reference and the ion-sensitive electrode , the method comprising the steps of a) injecting a pre-defined electric test current from the ion-sensing circuit into the loop comprising the reference and the ion-sensitive electrode , b) monitoring an additional potential difference (ΔV1) that develops in the loop between the reference and the ion-sensitive electrode in reaction to the injection of the test current , c) determining if the additional potential difference (ΔV1) is within an expected range characterizing healthy function of the sensor, and g) issuing an "out of solution" warning, in case the ion-sensitive electrode is not immersed in a aqueous solution, if the additional potential difference (ΔV1) is larger than an expected range characterizing healthy function of the sensor, and issuing a "broken glass" warning, if the additional potential difference (ΔV1) is lower than an expected range characterizing healthy function of the sensor. - an ion-sensitive electrode including an ion-sensitive glass bulb , - a reference electrode assembly including a reference electrode , - an ion-sensing circuit having a first terminal connected to the ion-sensitive electrode and a second terminal connected to the reference electrode , said circuit being designed to measure the potential difference (V1) that develops in the loop between the reference and the ion-sensitive electrode , a) injecting a pre-defined electric test current from the ion-sensing circuit into the loop comprising the reference and the ion-sensitive electrode , b) monitoring an additional potential difference (ΔV1) that develops in the loop between the reference and the ion-sensitive electrode in reaction to the injection of the test current , c) determining if the additional potential difference (ΔV1) is within an expected range characterizing healthy function of the sensor, and g) issuing an "out of solution" warning, in case the ion-sensitive electrode is not immersed in a aqueous solution, if the additional potential difference (ΔV1) is larger than an expected range characterizing healthy function of the sensor, and issuing a "broken glass" warning, if the additional potential difference (ΔV1) is lower than an expected range characterizing healthy function of the sensor.
A lead-free solder alloy comprising: 3.1 to 3.8 wt. % silver; 0.5 to 0.8 wt. % copper; 0.0 to 3.2 wt. % bismuth; 0.03 to 1.0 wt. % cobalt; 0.005 to 0.02 wt. % titanium; optionally 0.01 to 0.1 wt. % nickel; and balance tin, together with any unavoidable impurities. 3.1 to 3.8 wt. % silver; 0.5 to 0.8 wt. % copper; 0.0 to 3.2 wt. % bismuth; 0.03 to 1.0 wt. % cobalt; 0.005 to 0.02 wt. % titanium; optionally 0.01 to 0.1 wt. % nickel; and balance tin, together with any unavoidable impurities.
A method for producing hydroxypropyl methyl cellulose acetate succinate comprising: an esterification step of reacting hydroxypropyl methyl cellulose with an acetylating agent and a succinoylating agent in the presence of an aliphatic carboxylic acid in a kneader reactor equipped with two or more stirring blades rotating around their own axes and orbitally revolving, to obtain a reaction product solution containing hydroxypropyl methyl cellulose acetate succinate; a precipitation step of precipitating the hydroxypropyl methyl cellulose acetate succinate by mixing the reaction product solution with water to obtain a suspension of the precipitated hydroxypropyl methyl cellulose acetate succinate; and a washing and recovering step of washing the hydroxypropyl methyl cellulose acetate succinate in the suspension and recovering the washed hydroxypropyl methyl cellulose acetate succinate. an esterification step of reacting hydroxypropyl methyl cellulose with an acetylating agent and a succinoylating agent in the presence of an aliphatic carboxylic acid in a kneader reactor equipped with two or more stirring blades rotating around their own axes and orbitally revolving, to obtain a reaction product solution containing hydroxypropyl methyl cellulose acetate succinate; a precipitation step of precipitating the hydroxypropyl methyl cellulose acetate succinate by mixing the reaction product solution with water to obtain a suspension of the precipitated hydroxypropyl methyl cellulose acetate succinate; and a washing and recovering step of washing the hydroxypropyl methyl cellulose acetate succinate in the suspension and recovering the washed hydroxypropyl methyl cellulose acetate succinate.
Medical device for delivering at least one fluid, comprising - a first reservoir , - a first bung , - a first piston , - a first electromechanical device and - a control unit , - wherein said first reservoir , said first bung , said first piston and said first electromechanical device controlled by said control unit are arranged such that said first electromechanical device can be instructed to move said first bung via said first piston over a predetermined distance and a fluid is ejectable from said first reservoir by a first advancing movement of said first bung , - wherein said control unit is configured such that, after a dwell time following said first advancing movement of said first piston , said first piston is retracted by said first electromechanical device , characterized in - that said control unit is configured such that, within the dwell time, the first electromechanical device is moved with a second forward movement so as to move the first piston with another advancing movement, in order to compensate the difference of the position reached after the first advancing movement to the desired position of the first bung corresponding to the desired dose delivery. - a first reservoir , - a first bung , - a first piston , - a first electromechanical device and - a control unit , - wherein said first reservoir , said first bung , said first piston and said first electromechanical device controlled by said control unit are arranged such that said first electromechanical device can be instructed to move said first bung via said first piston over a predetermined distance and a fluid is ejectable from said first reservoir by a first advancing movement of said first bung , - wherein said control unit is configured such that, after a dwell time following said first advancing movement of said first piston , said first piston is retracted by said first electromechanical device , characterized in - that said control unit is configured such that, within the dwell time, the first electromechanical device is moved with a second forward movement so as to move the first piston with another advancing movement, in order to compensate the difference of the position reached after the first advancing movement to the desired position of the first bung corresponding to the desired dose delivery.
Method for decoding at least one current image segment, the method being implemented by a decoding device, the method comprising: - receiving a coded current image segment; and - decoding the current image segment using a selected decoding function; the method being characterized in that - descriptive information describing at least one choice function used is received ; and - the decoding function is selected from a finite set of decoding functions using said at least one choice function, said at least one choice function using data already decoded by said decoding device. - receiving a coded current image segment; and - decoding the current image segment using a selected decoding function; - descriptive information describing at least one choice function used is received ; and - the decoding function is selected from a finite set of decoding functions using said at least one choice function, said at least one choice function using data already decoded by said decoding device.
A battery module manufacturing system, comprising: a battery module having a cell stack formed by stacking a plurality of battery cells , a module case configured to accommodate the cell stack and a bus bar frame configured to cover an opening at one side of the module case ; a fixing frame coupled to one side of the battery module so that the bus bar frame is exposed to the outside; and at least one pressing jig apparatus coupled onto the fixing frame , wherein the pressing jig apparatus includes a first frame and a second frame , wherein the first frame and the second frame are coupled to be rotatable relative to each other based on a rotary shaft fastened to one longitudinal end thereof. wherein the first frame includes a first pressing tip provided at the other longitudinal end thereof and configured to press a lead group (T) of a first unit cell stack provided in the cell stack so that the lead group (T) comes into close contact with one side of the bus bar , and wherein the second frame includes a second pressing tip provided at the other longitudinal end thereof to face the first pressing tip and configured to press a lead group (T) of a second unit cell stack provided in the cell stack so that the lead group (T) comes into close contact with the other side of the bus bar . a battery module having a cell stack formed by stacking a plurality of battery cells , a module case configured to accommodate the cell stack and a bus bar frame configured to cover an opening at one side of the module case ; a fixing frame coupled to one side of the battery module so that the bus bar frame is exposed to the outside; and at least one pressing jig apparatus coupled onto the fixing frame , wherein the pressing jig apparatus includes a first frame and a second frame , wherein the first frame and the second frame are coupled to be rotatable relative to each other based on a rotary shaft fastened to one longitudinal end thereof. wherein the first frame includes a first pressing tip provided at the other longitudinal end thereof and configured to press a lead group (T) of a first unit cell stack provided in the cell stack so that the lead group (T) comes into close contact with one side of the bus bar , and wherein the second frame includes a second pressing tip provided at the other longitudinal end thereof to face the first pressing tip and configured to press a lead group (T) of a second unit cell stack provided in the cell stack so that the lead group (T) comes into close contact with the other side of the bus bar .
A dual coating and lift-off method for depositing and protecting patterned dielectric and metal filter layers using a two-layer lithography process wherein the two-layer lithography process comprises: first patterning a wafer having a bottom layer lift-off resist and a top layer resist by exposing and developing said bottom layer lift-off resist and said top layer resist to form said patterned wafer and to create an undercut in said bottom layer lift-off resist for providing an enlarged bottom layer lift-off resist pattern; next depositing dielectric and metal filter layers onto said patterned wafer using an evaporation or sputtering process; then lifting off said top layer resist and any excess deposited dielectric and metal filter material leaving said enlarged bottom layer lift-off resist pattern intact on said wafer and exposing any metal layer edges of said deposited dielectric and metal filter layers in said enlarged bottom layer lift-off resist pattern; then depositing one or more final blanket coatings within said enlarged bottom layer lift-off resist pattern to protect said metal layer edges and complete a coating stack ; and, then lifting off said enlarged bottom layer lift-off resist pattern and any excess final blanket coating leaving patterned features on said wafer . first patterning a wafer having a bottom layer lift-off resist and a top layer resist by exposing and developing said bottom layer lift-off resist and said top layer resist to form said patterned wafer and to create an undercut in said bottom layer lift-off resist for providing an enlarged bottom layer lift-off resist pattern; next depositing dielectric and metal filter layers onto said patterned wafer using an evaporation or sputtering process; then lifting off said top layer resist and any excess deposited dielectric and metal filter material leaving said enlarged bottom layer lift-off resist pattern intact on said wafer and exposing any metal layer edges of said deposited dielectric and metal filter layers in said enlarged bottom layer lift-off resist pattern; then depositing one or more final blanket coatings within said enlarged bottom layer lift-off resist pattern to protect said metal layer edges and complete a coating stack ; and, then lifting off said enlarged bottom layer lift-off resist pattern and any excess final blanket coating leaving patterned features on said wafer .
Separation device for fluid media that can be received in a work housing , comprising a separator piston which can separate two media chambers in a media-tight manner from one another inside the work housing and which is furnished at least partially along its outer circumference with a guide apparatus , which, when the separator piston performs a displacement motion inside the work housing , is able to lie in sliding contact with the inner walls thereof, wherein the guide apparatus forms an integral part of the separator piston , wherein the guide apparatus comprises a guide ring , which is formed directly on the separator piston , and wherein the separator piston comprises a base forming the partition wall between the chambers of the work housing , said base comprising a dome forming part of a spherical surface inside the piston, characterised in that reinforcing ribs in the form of plates extending in the radial direction arranged at equal distances from one another form the connection between the guide ring of the separator piston and the base thereof and in that , on an inner side of the dome opposite the reinforcing ribs , said dome is reinforced by ribs protruding from an inner wall.