mhurhangee/patent-ind-claim-en huggingface dataset:
A bracing device for fastening a lining frame onto a structure to be lined, said device comprising - a main portion extending in a so-called axial direction of which one end is equipped with a plate to be fastened onto the structure to be lined, and the other end of which is equipped with a membrane-retaining part , said membrane-retaining part (M) comprises a first jaw and a second jaw helping the clamping of the membrane (M) between them and avoiding said membrane (M) to be skewer or pierce, characterized in that said second jaw comprises two half jaws provided with means of assembly to be assembled together and form said second jaw, with said device further comprising coupling means for coupling the second jaw with the first jaw. - a main portion extending in a so-called axial direction of which one end is equipped with a plate to be fastened onto the structure to be lined, and the other end of which is equipped with a membrane-retaining part , said membrane-retaining part (M) comprises a first jaw and a second jaw helping the clamping of the membrane (M) between them and avoiding said membrane (M) to be skewer or pierce, characterized in that said second jaw comprises two half jaws provided with means of assembly to be assembled together and form said second jaw, with said device further comprising coupling means for coupling the second jaw with the first jaw.
A wireless communication method , comprising: sending (S210), by a network device, first configuration information, the first configuration information comprising m pieces of resource indication information, wherein a resource indicated by the m pieces of resource indication information is used for performing sounding reference signal, SRS-based reference signal receiving power, RSRP, measurement and/or received signal strength indication, RSSI, measurement, and m is a positive integer greater than or equal to 1, wherein the measurement comprises cross-link interference, CLI, measurement, characterised in that the first configuration information comprises bandwidth part, BWP, indication information, the BWP indication information being used for indicating a BWP corresponding to the resource indicated by the m pieces of resource indication information, and the first configuration information specifically includes m pieces of BWP indication information, a BWP indicated by i-th BWP indication information corresponds to a downlink BWP indicated by i-th resource indication information, 0<i≤m. sending (S210), by a network device, first configuration information, the first configuration information comprising m pieces of resource indication information, wherein a resource indicated by the m pieces of resource indication information is used for performing sounding reference signal, SRS-based reference signal receiving power, RSRP, measurement and/or received signal strength indication, RSSI, measurement, and m is a positive integer greater than or equal to 1, wherein the measurement comprises cross-link interference, CLI, measurement, characterised in that the first configuration information comprises bandwidth part, BWP, indication information, the BWP indication information being used for indicating a BWP corresponding to the resource indicated by the m pieces of resource indication information, and the first configuration information specifically includes m pieces of BWP indication information, a BWP indicated by i-th BWP indication information corresponds to a downlink BWP indicated by i-th resource indication information, 0<i≤m.
Scaffolding element having a scaffolding pole (12a - 12i) and a longitudinally extending fastening element for attaching a railing to the scaffolding pole (12a - 12i), wherein the fastening element (26a - 26c) is rigidly connected to the scaffolding pole (12a - 12i) and the fastening element (26a - 26c) has a fastening element body , wherein the longitudinal axis of the free end of the fastening element body runs parallel 25° to the longitudinal axis of the scaffolding pole (12a - 12i), and the fastening element (26a - 26c) has a projection formed by a bead on the fastening element body projecting toward the scaffolding pole (12a - 12i), wherein the bead extends at least partially radially around the fastening element body , characterized in that the fastening element body is L-shaped.
A method of charging an energy storage system using a wind turbine, the method comprising: using a wind turbine to generate power; establishing if turbine power production can be increased; establishing if the energy storage system is capable of taking a charge; increasing the power generated by the wind turbine above a rated power of the wind turbine; and using the additional power generated by the power increase to charge the energy storage system wherein establishing if turbine power production can be increased depends on vibrational modes of the wind turbine. using a wind turbine to generate power; establishing if turbine power production can be increased; establishing if the energy storage system is capable of taking a charge; increasing the power generated by the wind turbine above a rated power of the wind turbine; and using the additional power generated by the power increase to charge the energy storage system wherein establishing if turbine power production can be increased depends on vibrational modes of the wind turbine.
A light projection method with safety protection, comprising: turning on a light source at a safe power level (S101, S201); using a diffractive optical element to modulate light emitted from the light source so as to project a pattern onto a target surface (S102, S202); and acquiring the pattern (S103, S203); characterized in that the light projection method further comprises: determining whether the pattern is normal (S104, S204) and if the pattern is normal, turning on the light source at a rated power level (S105, S205), wherein the determining whether the pattern is normal comprises: comparing the pattern with patterns of various faults in a database of faults to recognize a fault mode and determining a fault location, the fault location being the light source or the diffractive optical element or both, the database of faults being pre-established according to patterns of light spots with various faults. turning on a light source at a safe power level (S101, S201); using a diffractive optical element to modulate light emitted from the light source so as to project a pattern onto a target surface (S102, S202); and acquiring the pattern (S103, S203); characterized in that the light projection method further comprises: determining whether the pattern is normal (S104, S204) and if the pattern is normal, turning on the light source at a rated power level (S105, S205), wherein the determining whether the pattern is normal comprises: comparing the pattern with patterns of various faults in a database of faults to recognize a fault mode and determining a fault location, the fault location being the light source or the diffractive optical element or both, the database of faults being pre-established according to patterns of light spots with various faults.
A method (200;400) for forming a deicer , the method comprising: forming (202;402) a body (302;502;602) of the deicer; forming (204;404) an outer layer (304;354;508;608) of the deicer through extrusion of an elastomeric material; the method characterized in that forming the outer layer of the deicer includes forming a first outer layer using the extrusion, forming a second outer layer using the extrusion, and coupling the first outer layer to the second outer layer; forming a natural rubber gum ply (506;606); forming a bond ply (504;604); coupling (206;410) the outer layer of the deicer to the body of the deicer, wherein coupling the outer layer of the deicer to the body of the deicer further includes coupling the natural rubber gum ply to the outer layer of the deicer and to the body of the deicer such that the natural rubber gum ply is located between the outer layer and the body; and coupling the bond ply to the body such that the body is located between the bond ply and the natural rubber gum ply, wherein the bond ply further comprises an adhesive configured to couple the bond ply to an aircraft component, wherein the bond ply is further configured to couple the deicer to the aircraft component. forming (202;402) a body (302;502;602) of the deicer; forming (204;404) an outer layer (304;354;508;608) of the deicer through extrusion of an elastomeric material; the method characterized in that forming the outer layer of the deicer includes forming a first outer layer using the extrusion, forming a second outer layer using the extrusion, and coupling the first outer layer to the second outer layer; forming a natural rubber gum ply (506;606); forming a bond ply (504;604); coupling (206;410) the outer layer of the deicer to the body of the deicer, wherein coupling the outer layer of the deicer to the body of the deicer further includes coupling the natural rubber gum ply to the outer layer of the deicer and to the body of the deicer such that the natural rubber gum ply is located between the outer layer and the body; and coupling the bond ply to the body such that the body is located between the bond ply and the natural rubber gum ply, wherein the bond ply further comprises an adhesive configured to couple the bond ply to an aircraft component, wherein the bond ply is further configured to couple the deicer to the aircraft component.
A mask system , comprising: a cushion and headgear module including a one piece construction having an outer fabric layer and an inner cushioning layer within the fabric layer, the cushion and headgear module including a cushion region adapted to define a breathing chamber and form a seal with the patient's face and a headgear region including straps adapted to maintain the cushion region in position on the patient's face in use, wherein at least one of the headgear straps contains an air delivery tube within the fabric. a cushion and headgear module including a one piece construction having an outer fabric layer and an inner cushioning layer within the fabric layer, the cushion and headgear module including a cushion region adapted to define a breathing chamber and form a seal with the patient's face and a headgear region including straps adapted to maintain the cushion region in position on the patient's face in use, wherein at least one of the headgear straps contains an air delivery tube within the fabric.
Swivel shower, preferably sanitary swivel shower, comprising - a shower body with a base body , a swivel body including a shower outlet and mounted for swivel movement relative to the base body between a rest position (Rp) and an operating position (Bp), a shower fluid inlet and a fluid flow path from the shower fluid inlet to the shower outlet, and - a shut-off valve arranged within the shower body in the fluid flow path between the shower fluid inlet and the shower outlet , said valve blocking the fluid flow path as a function of a swivel position of the swivel body , wherein the fluid flow path is completely blocked in the rest position (Rp) of the swivel body and is completely unblocked in the operating position (Bp) of the swivel body, characterized in that - the shut-off valve has a switching hysteresis, according to which the valve starts unblocking the fluid flow path during swiveling of the swivel body from the rest position in the direction towards the operating position with a delay as compared to it completely blocking the fluid flow path during swiveling of the swivel body from the operating position in the direction towards the rest position. - a shower body with a base body , a swivel body including a shower outlet and mounted for swivel movement relative to the base body between a rest position (Rp) and an operating position (Bp), a shower fluid inlet and a fluid flow path from the shower fluid inlet to the shower outlet, and - a shut-off valve arranged within the shower body in the fluid flow path between the shower fluid inlet and the shower outlet , said valve blocking the fluid flow path as a function of a swivel position of the swivel body , wherein the fluid flow path is completely blocked in the rest position (Rp) of the swivel body and is completely unblocked in the operating position (Bp) of the swivel body, characterized in that - the shut-off valve has a switching hysteresis, according to which the valve starts unblocking the fluid flow path during swiveling of the swivel body from the rest position in the direction towards the operating position with a delay as compared to it completely blocking the fluid flow path during swiveling of the swivel body from the operating position in the direction towards the rest position.
Polypropylene composition being a binary blend consisting of two propylene polymer fractions PPF1 and PPF2 in specific amounts: a) less than or equal to 50 wt% of a propylene polymer fraction PPF1, the propylene polymer fraction PPF1 being a propylene copolymer comprising propylene monomers and 1.50 to 7.00 mol% of one comonomer selected from C 4 -C 10 alpha-olefin, and b) more than or equal to 50 wt% of a propylene polymer fraction PPF2, the propylene polymer fraction PPF2 being a propylene terpolymer comprising propylene monomers, 3.00 to 12.00 mol% of ethylene comonomer and 1.50 to 17.00 mol% of one comonomer selected from C 4 -C 10 alpha-olefin, wherein the polypropylene composition: i. has a melting temperature (Tm) in the range of 135 to 160 °C as determined by DSC according to ISO 11357, and ii. satisfies the equation: Delta = Tm − SIT wherein Delta is in the range of 39 to 50 °C, and wherein Tm is the melting temperature, in °C, of the polypropylene composition, SIT is the sealing initiation temperature, in °C, of the polypropylene composition, as calculated from pellets via DSC analysis, the respective amounts of the propylene polymer fractions PPF1 and PPF2 being relative to the total sum of the propylene polymer fractions PPF1 and PPF2. a) less than or equal to 50 wt% of a propylene polymer fraction PPF1, the propylene polymer fraction PPF1 being a propylene copolymer comprising propylene monomers and 1.50 to 7.00 mol% of one comonomer selected from C 4 -C 10 alpha-olefin, and b) more than or equal to 50 wt% of a propylene polymer fraction PPF2, the propylene polymer fraction PPF2 being a propylene terpolymer comprising propylene monomers, 3.00 to 12.00 mol% of ethylene comonomer and 1.50 to 17.00 mol% of one comonomer selected from C 4 -C 10 alpha-olefin, i. has a melting temperature (Tm) in the range of 135 to 160 °C as determined by DSC according to ISO 11357, and ii. satisfies the equation: Delta = Tm − SIT wherein Delta is in the range of 39 to 50 °C, and wherein Tm is the melting temperature, in °C, of the polypropylene composition, SIT is the sealing initiation temperature, in °C, of the polypropylene composition, as calculated from pellets via DSC analysis, wherein Delta is in the range of 39 to 50 °C, and wherein Tm is the melting temperature, in °C, of the polypropylene composition, SIT is the sealing initiation temperature, in °C, of the polypropylene composition, as calculated from pellets via DSC analysis,
Luminous device for a motor vehicle comprising a luminous module and a housing , said luminous module comprising at least one light source , an open housing , a closure element for closing said open housing , said housing comprising an optical element with positioning spurs , an optical element support , an outer lens formed by an outer lens support and a transparent optical piece , said at least one light source being configured to emit light rays which cooperate with the optical element to generate a light beam, said open housing comprising a positioning hole making it possible to accommodate the optical element , said positioning hole comprising a substantially circular cross-section of central axis (Ax1) and a plurality of grooves , the grooves making it possible to immobilize the positioning spurs of the light guide , the open housing comprising an attachment lug for attachment to the housing which comprises an attachment support for the attachment lug , said attachment support being integral to said optical element support or said outer lens support , the luminous device being characterized in that said luminous module is configured to perform a rotational movement about the axis (Ax1) allowing the luminous module to be mounted on the housing and to be attached at the end of rotation to said housing via said attachment lug of said open housing . said luminous module comprising at least one light source , an open housing , a closure element for closing said open housing , said housing comprising an optical element with positioning spurs , an optical element support , an outer lens formed by an outer lens support and a transparent optical piece , said at least one light source being configured to emit light rays which cooperate with the optical element to generate a light beam, said open housing comprising a positioning hole making it possible to accommodate the optical element , said positioning hole comprising a substantially circular cross-section of central axis (Ax1) and a plurality of grooves , the grooves making it possible to immobilize the positioning spurs of the light guide , the open housing comprising an attachment lug for attachment to the housing which comprises an attachment support for the attachment lug , said attachment support being integral to said optical element support or said outer lens support , the luminous device being characterized in that said luminous module is configured to perform a rotational movement about the axis (Ax1) allowing the luminous module to be mounted on the housing and to be attached at the end of rotation to said housing via said attachment lug of said open housing .
Device comprising a work table having a work plate that comprises a receiving opening for stationary operation of a machine-driven tool, comprising an insert plate which can be inserted into the receiving opening and comprises, on the mounting face thereof which faces downwards when inserted, attaching means for attaching a drive machine and a tool passage opening through which a tool , which is drivable by the drive machine , projects beyond the work face which faces upwards when clamped, the insert plate having a surface profile on the work face thereof for mobile operation of the machine-driven tool, which surface profile corresponds to a guide profile of a guide rail such that the drive machine attached to the mounting face is displaceable along the guide rail , in the longitudinal direction of the guide rail , which rests on a workpiece so as to have a tool engaging in the workpiece , characterised in that the insert plate can be inserted into the receiving opening by means of a push-in-pivoting movement, hinge retaining pins arranged on the edge of the receiving opening entering hook-receiving openings of hook elements located on the edge of the insert plate and forming a pivot axis when the hinge retaining pins abut against a rear end of the retaining opening, the other side of the insert plate , when fully pivoted in, being supported on latching pins which also protrude from the two longitudinal side edges of the receiving opening and latch with latching elements on the lower edge of the insert plate .
An end effector capable of accommodating semiconductor wafers of varying sizes, comprising: a wafer support ; a bearing arm capable of interfacing with at least one robotic element, and at least partially bearing the wafer support at one end thereof; a plurality of support pads (212 a-d) on the wafer support for physically interfacing with a one of the semiconductor wafers ; and a low friction moving clamp driven bi-directionally along a plane at least partially provided by the bearing arm , wherein the low friction moving clamp retractably applies force to a proximal edge of the semiconductor wafer for the physical interfacing of the semiconductor wafer with the plurality of support pads (212 a-d); a bi-directional drive comprising at least a moving clamp motor , characterized in that the end effector further comprises: at least one retractable stop configured to stop retraction of the low friction moving clamp after actuation of the low friction moving clamp by the bi-directional drive, the at least one retractable stop being vacuum operated. a wafer support ; a bearing arm capable of interfacing with at least one robotic element, and at least partially bearing the wafer support at one end thereof; a plurality of support pads (212 a-d) on the wafer support for physically interfacing with a one of the semiconductor wafers ; and a low friction moving clamp driven bi-directionally along a plane at least partially provided by the bearing arm , wherein the low friction moving clamp retractably applies force to a proximal edge of the semiconductor wafer for the physical interfacing of the semiconductor wafer with the plurality of support pads (212 a-d); a bi-directional drive comprising at least a moving clamp motor , characterized in that the end effector further comprises: at least one retractable stop configured to stop retraction of the low friction moving clamp after actuation of the low friction moving clamp by the bi-directional drive, the at least one retractable stop being vacuum operated.
A computer-implemented method comprising: receiving (i) example data sets and (ii) data specifying one or more criteria against which input data sets are to be assessed; generating models based on different combinations of features using training data sets comprising subsets of the example data sets by, for each of the different combinations of features, training a set of multiple models that are each configured to classify input data sets based on whether the features in the combination are present in the input data sets , wherein each model in each set of models is respectively trained using a training data set comprising a different subset of the example data sets ; obtaining, from each model in each of the sets of generated models, output that the respective models generate for test data sets comprising subsets of the example data sets different from those of the training data sets with which the respective models were trained; selecting one of the combinations of features based on the outputs of the respective models by determining, for each generated model, an efficacy for the model for identifying data sets within the test data set that meet the one or more criteria; and using the example data sets to train a classifier to evaluate input data with respect to the specified one or more criteria based on input values corresponding to the features of the input data in the selected combination of features. receiving (i) example data sets and (ii) data specifying one or more criteria against which input data sets are to be assessed; generating models based on different combinations of features using training data sets comprising subsets of the example data sets by, for each of the different combinations of features, training a set of multiple models that are each configured to classify input data sets based on whether the features in the combination are present in the input data sets , wherein each model in each set of models is respectively trained using a training data set comprising a different subset of the example data sets ; obtaining, from each model in each of the sets of generated models, output that the respective models generate for test data sets comprising subsets of the example data sets different from those of the training data sets with which the respective models were trained; selecting one of the combinations of features based on the outputs of the respective models by determining, for each generated model, an efficacy for the model for identifying data sets within the test data set that meet the one or more criteria; and using the example data sets to train a classifier to evaluate input data with respect to the specified one or more criteria based on input values corresponding to the features of the input data in the selected combination of features.