mhurhangee/ep-ind-claims huggingface dataset:
A handheld extraction cleaner, comprising: a unitary body including a carry handle, a first lateral side, and a second lateral side; a fluid delivery system including a supply tank carried by the unitary body and at least one fluid distributor; and a recovery system including a working air path through the unitary body, a suction nozzle defining an inlet to the working air path, a suction source in fluid communication with the suction nozzle, and a recovery tank carried by the unitary body, the recovery tank comprising: a collection chamber; an inlet opening to the collection chamber; and a tank body defining the collection chamber, the tank body having a first side portion and a second side portion, characterized in that the first side portion of the recovery tank is disposed laterally outwardly with respect to the first lateral side of the unitary body and the second side portion of the recovery tank is disposed laterally outwardly with respect to the second lateral side of the unitary body. a unitary body including a carry handle, a first lateral side, and a second lateral side; a fluid delivery system including a supply tank carried by the unitary body and at least one fluid distributor; and a recovery system including a working air path through the unitary body, a suction nozzle defining an inlet to the working air path, a suction source in fluid communication with the suction nozzle, and a recovery tank carried by the unitary body, the recovery tank comprising: a collection chamber; an inlet opening to the collection chamber; and a tank body defining the collection chamber, the tank body having a first side portion and a second side portion, characterized in that the first side portion of the recovery tank is disposed laterally outwardly with respect to the first lateral side of the unitary body and the second side portion of the recovery tank is disposed laterally outwardly with respect to the second lateral side of the unitary body. a collection chamber; an inlet opening to the collection chamber; and a tank body defining the collection chamber, the tank body having a first side portion and a second side portion, characterized in that the first side portion of the recovery tank is disposed laterally outwardly with respect to the first lateral side of the unitary body and the second side portion of the recovery tank is disposed laterally outwardly with respect to the second lateral side of the unitary body.
A method of communicating data in a wireless communication system including a first type network communicating based on a number of Orthogonal Frequency-Division Multiplexing, OFDM, symbols and including an Evolved Universal Terrestrial Access Network, E-UTRAN, network, a second type network which is different from the first type network and which includes an Universal Terrestrial Access Network/GSM EDGE Radio Access Network, UTRAN/GERAN, network, and a user equipment, UE, which is communicating with at least one of the first type network and the second type network, the method performed by the UE which moves between a coverage of the first type network and a coverage of the second type network and comprising: performing a combined track area update, TAU, to the first type network; and when the UE moves from a first cell of the first type network to a second cell of the second type network, starting a location area update procedure, which is associated with a circuit switched, CS, domain, while a packet switched, PS, mobility management, MM, back-off timer is running, wherein the first cell and the second cell belong to a same location area, which is associated with the CS domain, wherein the PS MM back-off timer is a timer starting when a PS MM back-off time value is received by the UE. performing a combined track area update, TAU, to the first type network; and when the UE moves from a first cell of the first type network to a second cell of the second type network, starting a location area update procedure, which is associated with a circuit switched, CS, domain, while a packet switched, PS, mobility management, MM, back-off timer is running, wherein the first cell and the second cell belong to a same location area, which is associated with the CS domain, wherein the PS MM back-off timer is a timer starting when a PS MM back-off time value is received by the UE.
An adapter for mounting a tool on an oscillating drive having a drive shaft configured to be oscillatingly driven about its longitudinal axis, wherein the adapter (10; 10a; 10b; 10c; 10d) comprises a drive end facing the drive shaft and a tool end facing the tool and is passed by a central opening, wherein the adapter (10; 10a; 10b; 10c; 10d) has a first receptacle on the drive end which comprises at least one positive-locking element for positive connection with the tool, and wherein the adapter (10; 10a; 10b; 10c; 10d) comprises a second receptacle on its tool end for effecting connection with a tool, which receptacle has a shape different from the first receptacle and comprises a plurality of outwardly extending convex projections, each having a rounded tip and being connected with neighboring projections via rounded concave lateral flanks, characterized in that the at least one positive-locking element comprises a plurality of positive-locking pieces arranged evenly on a circle concentric to the center axis and protruding to the outside, being configured for positive-locking connection with matching positive-locking counter-elements on the drive shaft.
An apparatus for cleaning an electrode rolling roll by removing contaminants attached on the electrode rolling roll, the apparatus comprising: a first cleaning part configured to bring the rolling roll into contact with a cleaning member to thereby clean the rolling roll; and a second cleaning part configured to clean the rolling roll by bringing the rolling roll cleaned by the first cleaning part into contact with a cleaning member to thereby clean the rolling roll, the apparatus being characterised by patterns of a grain shape having different directions with respect to the direction of travel of the cleaning members (215,225) formed on the cleaning members of the first and second cleaning parts (210, 220), and by the directions of the patterns of the grain shape formed on the cleaning members (215, 225) of the first and second cleaning parts (210, 220) which intersect each other with an angle of 60 to 120 degrees. a first cleaning part configured to bring the rolling roll into contact with a cleaning member to thereby clean the rolling roll; and a second cleaning part configured to clean the rolling roll by bringing the rolling roll cleaned by the first cleaning part into contact with a cleaning member to thereby clean the rolling roll, the apparatus being characterised by patterns of a grain shape having different directions with respect to the direction of travel of the cleaning members (215,225) formed on the cleaning members of the first and second cleaning parts (210, 220), and by the directions of the patterns of the grain shape formed on the cleaning members (215, 225) of the first and second cleaning parts (210, 220) which intersect each other with an angle of 60 to 120 degrees.
Domestic refrigerator having an interior (4, 5) for receiving groceries, which is delimited by walls of an inner container, and a keep-fresh container for groceries arranged in the interior (4, 5), which can be closed by a lid and having a storage device, with which the lid for opening and closing the keep-fresh container is supported so as to be able to raise and lower in the interior (4, 5), and having a control element, with which the lid can be actuated, characterised in that a front strip has a movement-guiding device for the control element and the movement-guiding device has a support plate with lateral guiding elements (25a, 25b), wherein the control element has a slider carriage, which is displaceably guided in the support plate, wherein the control element has a slide block, which is guided in a guide link of the movement-guiding device, wherein the slider carriage is arranged below the support plate of the movement-guiding device and the guide link is embodied on an underside of the support plate which faces the slider carriage, and the slide block is arranged on a top side of the slider carriage and wherein an engagement area is embodied on an underside of the slider carriage which faces away from the support plate, in which a coupling part engages on a top side of the lid so that the lid is movably coupled with the control element.
Encapsulation structure (100, 200, 300) comprising at least one cavity (110, 202) formed between a first substrate and a cap, the cavity being hermetically sealed and in which at least the following are encapsulated: - a device, - an electronic component forming part of an integrated circuit made on the first substrate, and - a getter material layer covering the electronic component in full in order to block the gases capable of being degassed by the electronic component, the electronic component being thus not exposed in the cavity, and in which the device is not covered by the getter material layer. - a device, - an electronic component forming part of an integrated circuit made on the first substrate, and - a getter material layer covering the electronic component in full in order to block the gases capable of being degassed by the electronic component,
A method for assembling dopant molecules on the surface of a two-dimensional material formed on a substrate, the method comprises: - forming a spacer layer comprising at least one of an electrically insulating compound or a semiconductor compound on the surface of the two-dimensional material, the compound of the spacer layer is adapted to allow for the diffusion of dopant molecules through the compound during an annealing process, - depositing dopant molecules on the spacer layer, - annealing the substrate with spacer layer and the molecules at an elevated temperature above room temperature for an annealing time duration, wherein the elevated temperature and annealing time duration depend on the compound of the spacer layer and properties of the dopant molecules, and are such that at least a portion of the dopant molecules diffuse through the spacer layer towards the surface of the two-dimensional material during the annealing time duration to assemble on the surface of the two-dimensional material to thereby dope the two-dimensional material and cause an increase of the mobility of the two-dimensional material. - forming a spacer layer comprising at least one of an electrically insulating compound or a semiconductor compound on the surface of the two-dimensional material, the compound of the spacer layer is adapted to allow for the diffusion of dopant molecules through the compound during an annealing process, - depositing dopant molecules on the spacer layer, - annealing the substrate with spacer layer and the molecules at an elevated temperature above room temperature for an annealing time duration, wherein the elevated temperature and annealing time duration depend on the compound of the spacer layer and properties of the dopant molecules, and are such that at least a portion of the dopant molecules diffuse through the spacer layer towards the surface of the two-dimensional material during the annealing time duration to assemble on the surface of the two-dimensional material to thereby dope the two-dimensional material and cause an increase of the mobility of the two-dimensional material.
A haptic controller comprising: • a base; • a control member having a proximal end, a distal end, and a control support adapted to enable a variable force to be applied at one or more points between the proximal end and the distal end; and • a connection member connecting the control member to the base, and having a proximal end and a distal end; • the distal end of the connection member is connected to the base by a distal pivot enabling the connection member to pivot relative to the base about an axis X2-X2, and the proximal end of the connection member is connected to the proximal end of the control member by a proximal pivot enabling the control member to pivot relative to the connection member about an axis X1-X1 parallel to the axis X2-X2; and • characterized in that the haptic controller further comprises damper elements (81, 82) arranged respectively between the base and the connection member, and between the connection member and the control member, in order to damp the pivoting of the connection member and of the control member when a force is applied to the control support. • a base; • a control member having a proximal end, a distal end, and a control support adapted to enable a variable force to be applied at one or more points between the proximal end and the distal end; and • a connection member connecting the control member to the base, and having a proximal end and a distal end; • the distal end of the connection member is connected to the base by a distal pivot enabling the connection member to pivot relative to the base about an axis X2-X2, and the proximal end of the connection member is connected to the proximal end of the control member by a proximal pivot enabling the control member to pivot relative to the connection member about an axis X1-X1 parallel to the axis X2-X2; and • characterized in that the haptic controller further comprises damper elements (81, 82) arranged respectively between the base and the connection member, and between the connection member and the control member, in order to damp the pivoting of the connection member and of the control member when a force is applied to the control support.
A process of manufacture of 2-aminotetralins of formula by diasteroisomeric salt resolution of compound of formula, wherein salt resolution of compound of formula is performed according to the following steps: (i) reacting free base of compound of formula with an acid selected from the group consisting of -2-methoxy-2-phenyl acetic acid, -2-(2-chlorophenyl)-2-hydroxyacetic acid, -2-hydroxy-3-phenylpropionic acid,and -(-)-2-(6-methoxy-2-naphthyl)-propionic acid, in a solvent to afford diasteroisomeric salts and (V'); (ii) crystallizing resulting diastereroisomeric salt in a solvent; (iii) reacting diastereoisomeric salt obtained as a result of step (ii) with a mineral acid to afford directly salt of compound of formula; and wherein R 1 and R 2 are alkyl and R 3 is hydrogen. (i) reacting free base of compound of formula with an acid selected from the group consisting of -2-methoxy-2-phenyl acetic acid, -2-(2-chlorophenyl)-2-hydroxyacetic acid, -2-hydroxy-3-phenylpropionic acid,and -(-)-2-(6-methoxy-2-naphthyl)-propionic acid, in a solvent to afford diasteroisomeric salts and (V'); (ii) crystallizing resulting diastereroisomeric salt in a solvent; (iii) reacting diastereoisomeric salt obtained as a result of step (ii) with a mineral acid to afford directly salt of compound of formula; and
Computer program product for processing galvanic skin response signals recorded from a user by a galvanic skin response sensor, which when run on an arousal measuring device controls the arousal measuring device to estimate a change in the level of arousal, of a user, provided with an algorithm that is configured to control the arousal measuring device to calculate a third or higher central moment of a recorded galvanic skin response signal and to derive an estimation of the change in level of arousal from said third or higher central moment, wherein the third or higher order moment comprises the skewness and/or kurtosis, and wherein the algorithm is configured to control the arousal measuring device to derive an increase in the level of arousal when a relatively low skewness and/or a relatively high kurtosis is calculated, and/or a decrease in the level of arousal when a relatively high skewness and/or a relatively low kurtosis is calculated.
A medical catheter assembly, comprising: an elongate catheter member having a longitudinal axis (x), the elongate catheter member defining first and second internal lumens (130, 132) extending therethrough, the elongate catheter member including an outer wall having a first opening defined by a first continuous wall, and being in fluid communication with the first internal lumen to facilitate establishment of a first flow stream, and a second opening defined by a second continuous wall, and being in fluid communication with the second internal lumen to facilitate establishment of a second flow stream, characterized in that: the first and second openings (142A,142B) each include proximal and distal tapered portions (152A, 154A, 152B, 154B), whereby separation of the first flow stream from the second flow stream is maximized to reduce the likelihood of recirculation between the first and second internal lumens (130,132), the proximal and distal tapered portions (152A, 154A) of the first opening being connected by a first intermediate portion, and the proximal and distal tapered portions (152B, 154B) of the second opening being connected by a second intermediate portion, the first intermediate portion being defined by first and second wall portions (144, 150) of the first wall, and the second intermediate portion being defined by first and second wall portions (144, 150) of the second wall, the first wall portion of the first intermediate portion extending along an axis parallel to the longitudinal axis (x), and the second wall portion of the first intermediate portion being arcuate in configuration and the first wall portion of the second intermediate portion extending along an axis parallel to the longitudinal axis (x), and the second wall portion of the second intermediate portion being arcuate in configuration. the first and second openings (142A,142B) each include proximal and distal tapered portions (152A, 154A, 152B, 154B), whereby separation of the first flow stream from the second flow stream is maximized to reduce the likelihood of recirculation between the first and second internal lumens (130,132), the proximal and distal tapered portions (152A, 154A) of the first opening being connected by a first intermediate portion, and the proximal and distal tapered portions (152B, 154B) of the second opening being connected by a second intermediate portion, the first intermediate portion being defined by first and second wall portions (144, 150) of the first wall, and the second intermediate portion being defined by first and second wall portions (144, 150) of the second wall, the first wall portion of the first intermediate portion extending along an axis parallel to the longitudinal axis (x), and the second wall portion of the first intermediate portion being arcuate in configuration and the first wall portion of the second intermediate portion extending along an axis parallel to the longitudinal axis (x), and the second wall portion of the second intermediate portion being arcuate in configuration.
An oral care composition for use in a method of treating dry mouth, the oral care composition comprising: at least one non-fermentable sugar selected from the group comprising sorbitol and xylitol; and a poly (acetyl, arginyl) glucosamine (PAAG), wherein PAAG comprises the following formula: wherein: n is an integer between 20 and 6000; and each R 1 is independently selected for each occurrence from hydrogen, acetyl, wherein at least 25% of R 1 substituents are H, at least 1% of R 1 substituents are acetyl, and at least 2% of R 1 substituents are the molecular weight of the PAAG is from 20 to 200 kDa, and wherein the PAAG is present in the composition at an amount of at least 0.003% to about 0.05% w/v. at least one non-fermentable sugar selected from the group comprising sorbitol and xylitol; and a poly (acetyl, arginyl) glucosamine (PAAG), wherein PAAG comprises the following formula: wherein: n is an integer between 20 and 6000; and each R 1 is independently selected for each occurrence from hydrogen, acetyl, wherein at least 25% of R 1 substituents are H, at least 1% of R 1 substituents are acetyl, and at least 2% of R 1 substituents are the molecular weight of the PAAG is from 20 to 200 kDa, and wherein the PAAG is present in the composition at an amount of at least 0.003% to about 0.05% w/v. n is an integer between 20 and 6000; and each R 1 is independently selected for each occurrence from hydrogen, acetyl, wherein at least 25% of R 1 substituents are H, at least 1% of R 1 substituents are acetyl, and at least 2% of R 1 substituents are the molecular weight of the PAAG is from 20 to 200 kDa, and wherein the PAAG is present in the composition at an amount of at least 0.003% to about 0.05% w/v.
A method of controlling a stretchable display including a stretchable substrate, stretchable in at least one direction, and a display unit that is on the stretchable substrate for displaying an image, the method comprising: obtaining stretch information relating to the stretchable substrate using two pairs of acceleration sensors (21, 22, 23, 24) provided on edges of the stretchable substrate; predicting a shape change of the display unit on the basis of the stretch information; and controlling the display unit on the basis of the shape change, wherein predicting the shape change includes using a look-up table in which the stretch information and a shape of the display unit are mapped to each other, and wherein obtaining the stretch information includes: obtaining first stretch information which is the sum of moving distances (41-42; 51-54; 61-63) of a pair of acceleration sensors (21-22; 21-24; 21-23) in the plane of the stretchable substrate; obtaining second stretch information which is the sum of moving distances (43-44; 52-53; 62-64) of another pair of acceleration sensors (23-24; 22-23; 22-24) in the plane of the stretchable substrate; and obtaining the stretch information from an average of the first and second stretch information. obtaining stretch information relating to the stretchable substrate using two pairs of acceleration sensors (21, 22, 23, 24) provided on edges of the stretchable substrate; predicting a shape change of the display unit on the basis of the stretch information; and controlling the display unit on the basis of the shape change, obtaining first stretch information which is the sum of moving distances (41-42; 51-54; 61-63) of a pair of acceleration sensors (21-22; 21-24; 21-23) in the plane of the stretchable substrate; obtaining second stretch information which is the sum of moving distances (43-44; 52-53; 62-64) of another pair of acceleration sensors (23-24; 22-23; 22-24) in the plane of the stretchable substrate; and obtaining the stretch information from an average of the first and second stretch information.