mhurhangee/ep-ind-claims huggingface dataset:
A strength saving spiral mop pole characterized in that the strength saving spiral mop pole comprises: a gripping rod being a hollow rod body; an outer rod mounted in the gripping rod and having two opening ends, a receiving space and a spiral concave portion, the receiving space formed inside of the outer rod, and the spiral concave portion formed helically in the outer rod; an inner rod mounted in the receiving space and having an installation hole formed on one end of the inner rod; a rotating module connected to the inner rod and having a pressing block and a threaded block, the pressing block mounted in the installation hole and having a guiding rod, the threaded block penetrated by the guiding rod and fastened to the pressing block, the threaded block having multiple spiral protrusive parts and multiple oblique grooves, the spiral protrusive parts formed obliquely formed on the threaded block and spaced apart from one another, the multiple oblique grooves formed between the spiral protrusive parts, the spiral concave portion engaged with the spiral protrusive parts and the oblique grooves; and a holding device mounted on the inner rod. a gripping rod being a hollow rod body; an outer rod mounted in the gripping rod and having two opening ends, a receiving space and a spiral concave portion, the receiving space formed inside of the outer rod, and the spiral concave portion formed helically in the outer rod; an inner rod mounted in the receiving space and having an installation hole formed on one end of the inner rod; a rotating module connected to the inner rod and having a pressing block and a threaded block, the pressing block mounted in the installation hole and having a guiding rod, the threaded block penetrated by the guiding rod and fastened to the pressing block, the threaded block having multiple spiral protrusive parts and multiple oblique grooves, the spiral protrusive parts formed obliquely formed on the threaded block and spaced apart from one another, the multiple oblique grooves formed between the spiral protrusive parts, the spiral concave portion engaged with the spiral protrusive parts and the oblique grooves; and a holding device mounted on the inner rod.
A robot cleaner driving method, comprising: setting step of setting a cleaning space, including a space to be cleaned, and partitioning the cleaning space into a plurality of cells (52; 102); cleaning step of driving the robot cleaner and cleaning a first cell of the plurality of cells (52;102); and moving step of driving the robot cleaner to the next cell, which is a second cell, when there are one or more cells to be cleaned after cleaning the first cell, wherein the cleaning step and moving step are repeated until the plurality of cells (52, 102) is cleaned, and wherein the cleaning space is cleaned on a per cell basis, characterized in that the method further comprises re-setting step of setting a further cleaning space including a space to be cleaned, excluding the already cleaned space, and partitioning the further cleaning space into a plurality of cells, after the cleaning steps of the previously set cleaning space are completed. setting step of setting a cleaning space, including a space to be cleaned, and partitioning the cleaning space into a plurality of cells (52; 102); cleaning step of driving the robot cleaner and cleaning a first cell of the plurality of cells (52;102); and moving step of driving the robot cleaner to the next cell, which is a second cell, when there are one or more cells to be cleaned after cleaning the first cell, wherein the cleaning step and moving step are repeated until the plurality of cells (52, 102) is cleaned, and wherein the cleaning space is cleaned on a per cell basis, characterized in that the method further comprises re-setting step of setting a further cleaning space including a space to be cleaned, excluding the already cleaned space, and partitioning the further cleaning space into a plurality of cells, after the cleaning steps of the previously set cleaning space are completed.
Drive train module for a motor vehicle, comprising a connector piece (112; 212) of a drive shaft which transmits a drive torque from an internal combustion engine of the motor vehicle into a module housing (102; 202) which is fixed on the vehicle, and an electric machine which is configured as an internal-rotor motor having a stator (142; 242) which is fixed to the module housing and an annular rotor (144; 244) which is connected fixedly via a radially extending rotor carrier (146; 246) to a rotor shaft (126; 226) so as to rotate with it, which rotor shaft (126; 226) is axially adjacent with respect to the connector piece (112; 212), a rotor coupling (117; 217) which produces a switchable connection between the rotor shaft (126; 226) and the connector piece (112; 212) being contained in a rotor coupling housing (108; 208) which is sealed against the dry-running rotor carrier (146; 246) and is arranged at least in regions radially within the rotor (144; 244), characterized in that the rotor coupling housing (108; 208) is arranged fixedly on the module housing.
Composed element which comprises at least two panel-shaped elements, which, by means of a locking tongue and groove connection, can be coupled directly to each other thereby forming a corner connection, wherein said connection comprises, at least at one of the panel-shaped elements, a tongue or groove, which can cooperate with a groove or tongue provided on the other panel-shaped element; wherein the tongue consists of a split tongue, with, thus, at least a first part and a second part, as well as a slit located there between; and wherein at the outer side of at least said first part, a locking part is present; wherein the tongue, is situated at a small face of the respective panel-shaped element; and wherein the slit extends deeper than the surface of the small face of the panel-shaped element on which the tongue is provided, wherein the slit, is delimited at least by a first inner surface of the tongue, a second inner surface of the tongue and a bottom wherein the first part of the tongue protrudes farther from the small face of the panel-shaped element than the second part of the tongue; characterised in that at least one of the first inner surface or the second inner surface, is not parallel with the large parallel surfaces defining the length and width of the panel-shaped element comprising the split tongue, wherein the first inner surface and/or the second inner surface, respectively, which is not parallel with the large parallel surfaces defining the length and width of the panel-shaped element comprising the split tongue, is not parallel with the large parallel surfaces defining the length and width of the panel-shaped element at least for the part of the slit which reaches deeper than said surface of the small face of the panel-shaped element on which the tongue is provided.
A combined mechanical mating and adhesive-based reclosable fastener comprising: opposing substrate portions (12a, 12b) for supporting the reclosable fastener; mechanically interlocking elements of the reclosable fastener including opposing mechanically interlocking portions having cooperating coupling parts (16,18) configured to provide mechanical interlocking of the fastener when the cooperating coupling parts are coupled together; adhesive mating elements of the opposing mechanically interlocking portions including contacting portions (20, 22) of the cooperating coupling parts formed of an adhesive material exhibiting a bond between the contacting portions configured to provide an adhesive mating of the cooperating coupling parts when coupled together; and the mechanically interlocking elements and the adhesive mating elements combine to provide a first peel force between the opposing substrate portions of about 3.15 to about 35.43 kg/m (about 80 to about 900 gpli) and up to five subsequent peels between the opposing substrate portions of about 2.36 to about 35.43 kg/m (about 60 to about 900 gpli). opposing substrate portions (12a, 12b) for supporting the reclosable fastener; mechanically interlocking elements of the reclosable fastener including opposing mechanically interlocking portions having cooperating coupling parts (16,18) configured to provide mechanical interlocking of the fastener when the cooperating coupling parts are coupled together; adhesive mating elements of the opposing mechanically interlocking portions including contacting portions (20, 22) of the cooperating coupling parts formed of an adhesive material exhibiting a bond between the contacting portions configured to provide an adhesive mating of the cooperating coupling parts when coupled together; and the mechanically interlocking elements and the adhesive mating elements combine to provide a first peel force between the opposing substrate portions of about 3.15 to about 35.43 kg/m (about 80 to about 900 gpli) and up to five subsequent peels between the opposing substrate portions of about 2.36 to about 35.43 kg/m (about 60 to about 900 gpli).
An air cell cartridge comprising a plurality of air cells each including a positive electrode material, a negative electrode material and an electrolysis solution layer holding an electrolysis solution and interposed between the positive electrode material and the negative electrode material and each being provided with an airflow path (α) through which air passes so as to come into contact with the positive electrode material, the air cells being arranged in a manner such that the air flow path (α) is formed therebetween, wherein a leakage prevention material is provided in the air flow path (α) to absorb the electrolysis solution leaked from the electrolysis solution layer and swell so as to block up the airflow path (α), characterized in that the air cells are connected to each other in series or in parallel, characterized in that the leakage prevention material is placed on an inner circumference of a pipe constituting the air flow path (α), and the leakage prevention material does not block up the air supply in a non-swelling state.
A power system for a working machine, comprising: a prime mover and a main shaft, wherein the prime mover is drivingly connectable to the main shaft; a planetary gear set comprising a rotatable first member drivingly connected to the main shaft, a rotatable second member and a rotatable third member for propulsion of the working machine; a hydraulic system comprising at least one hydraulic actuator for performing a working function of the working machine during use of the working machine; an electric energy storage system; a first hydraulic machine mechanically coupled to the main shaft and hydraulically coupled to the hydraulic system; a first electric machine mechanically coupled to the main shaft; a second electric machine mechanically coupled to the rotatable second member, wherein the first and second electric machines (EM1, EM2) are electrically connected and wherein the electric energy storage system is electrically connected to the first and second electric machines (EM1, EM2), and wherein the power system further comprises: a second hydraulic machine mechanically coupled to the rotatable second member and hydraulically coupled to the hydraulic system, characterised in that the second hydraulic machine is configured such that it can be operated in two opposite rotational directions in order to generate hydraulic power to the hydraulic system. a prime mover and a main shaft, wherein the prime mover is drivingly connectable to the main shaft; a planetary gear set comprising a rotatable first member drivingly connected to the main shaft, a rotatable second member and a rotatable third member for propulsion of the working machine; a hydraulic system comprising at least one hydraulic actuator for performing a working function of the working machine during use of the working machine; an electric energy storage system; a first hydraulic machine mechanically coupled to the main shaft and hydraulically coupled to the hydraulic system; a first electric machine mechanically coupled to the main shaft; a second electric machine mechanically coupled to the rotatable second member, wherein the first and second electric machines (EM1, EM2) are electrically connected and wherein the electric energy storage system is electrically connected to the first and second electric machines (EM1, EM2), and wherein the power system further comprises: a second hydraulic machine mechanically coupled to the rotatable second member and hydraulically coupled to the hydraulic system, characterised in that the second hydraulic machine is configured such that it can be operated in two opposite rotational directions in order to generate hydraulic power to the hydraulic system.
Applicator for cosmetic product, comprising a core extending according to a main longitudinal extension direction, called main direction, said core comprising two twisted metal strands, said applicator further comprising a plurality of fibres retained on the core by said twisted strands, said applicator being characterised by the fact that said twisted strands form non-joining spires (14, 14', 15) so as to house said fibres, the number and/or the nature of the fibres varying from one spire, called first spire (14, 14'), to the other, called second spire, the applicator comprising a plurality of first spires (14, 14') and a plurality of second spires along said main direction, said plurality of first spires (14, 14') comprises fibres of a first hollow nature, and fibres of a second solid nature.
A cartridge for an aerosol-generating system, the cartridge comprising: a liquid reservoir for holding a liquid aerosol-forming substrate; a susceptor assembly in fluid communication with the liquid reservoir, the susceptor assembly comprising a susceptor element (16, 18) heatable by penetration with a varying magnetic field, wherein the susceptor element (16, 18) comprises: a heating region having a length and a width; and at least one mounting region having a length and a width, the at least one mounting region being located adjacent a periphery of the heating region; and a susceptor holder in contact with the at least one mounting region of the susceptor element (16, 18), wherein the length of the at least one mounting region is less than the length of the heating region, and the width of the at least one mounting region is less than the width of the heating region. a liquid reservoir for holding a liquid aerosol-forming substrate; a susceptor assembly in fluid communication with the liquid reservoir, the susceptor assembly comprising a susceptor element (16, 18) heatable by penetration with a varying magnetic field, wherein the susceptor element (16, 18) comprises: a heating region having a length and a width; and at least one mounting region having a length and a width, the at least one mounting region being located adjacent a periphery of the heating region; and a heating region having a length and a width; and at least one mounting region having a length and a width, the at least one mounting region being located adjacent a periphery of the heating region; and a susceptor holder in contact with the at least one mounting region of the susceptor element (16, 18), wherein the length of the at least one mounting region is less than the length of the heating region, and the width of the at least one mounting region is less than the width of the heating region.
A display apparatus for rendering a 3D image from image data which specifies the 3D image as a plurality of volumetric pixels, voxels, at respective locations within the 3D image, each voxel comprising at least one of a luminance value and a colour value, the display apparatus comprising: at least one light source having a light emitter for outputting light and a receiver comprising a receiving coil for wirelessly receiving electrical power via electromagnetic induction; a transmitter comprising a transmitting coil for wirelessly transmitting electrical power to the light source via electromagnetic induction; a levitating arrangement constructed and arranged to controllably lift and move the light source within a display volume; and a controller constructed and arranged to wirelessly control the light source to render the 3D image within the display volume by: controlling the levitating arrangement to repeatedly move the light source through locations of a path traversing the display volume, wherein each of said locations of the path corresponds to one of said voxels of the 3D image; and simultaneously controlling the transmission of electrical power by the transmitter to the light source, to cause the light source, at each of said locations of the path, to output light via the light emitter in accordance with the at least one of a luminance value or colour value of the voxel in the 3D image corresponding to that location. at least one light source having a light emitter for outputting light and a receiver comprising a receiving coil for wirelessly receiving electrical power via electromagnetic induction; a transmitter comprising a transmitting coil for wirelessly transmitting electrical power to the light source via electromagnetic induction; a levitating arrangement constructed and arranged to controllably lift and move the light source within a display volume; and a controller constructed and arranged to wirelessly control the light source to render the 3D image within the display volume by: controlling the levitating arrangement to repeatedly move the light source through locations of a path traversing the display volume, wherein each of said locations of the path corresponds to one of said voxels of the 3D image; and simultaneously controlling the transmission of electrical power by the transmitter to the light source, to cause the light source, at each of said locations of the path, to output light via the light emitter in accordance with the at least one of a luminance value or colour value of the voxel in the 3D image corresponding to that location.
A drive circuit for an inductive load, characterized by comprising: an inductive load disposed between a midpoint between a first and a second transistor (14, 16) connected in series and a midpoint between a third and a fourth transistor (15, 17) connected in series; a protective resistor disposed between sources or emitters of the first and third transistors and a direct-current power supply (Vcc); a sensing resistor, disposed between low-potential sides of the second and fourth transistors and ground, for detecting ground shorts between the inductive load and ground; first drive means (8, 9, 20) for driving the first and third transistors through input of drive signals, each having a fixed potential, to gates or bases of the first and third transistors; second drive means (8, 9, 21) for driving the second and fourth transistors, the first to fourth transistors being driven by way of the first drive means and the second drive means in such a manner that the fourth transistor is switched on/off a plurality of times during a period over which the first transistor is switched on, and the second transistor is switched on/off a plurality of times during a period over which the third transistor is switched on; and detection means for switching off the drive circuit when, during powering of the inductive load, a voltage applied to the sensing resistor is continuously equal to or lower than a threshold value for ground short detection, for a predetermined time that is longer than a period over which the second and fourth transistors are switched on/off. an inductive load disposed between a midpoint between a first and a second transistor (14, 16) connected in series and a midpoint between a third and a fourth transistor (15, 17) connected in series; a protective resistor disposed between sources or emitters of the first and third transistors and a direct-current power supply (Vcc); a sensing resistor, disposed between low-potential sides of the second and fourth transistors and ground, for detecting ground shorts between the inductive load and ground; first drive means (8, 9, 20) for driving the first and third transistors through input of drive signals, each having a fixed potential, to gates or bases of the first and third transistors; second drive means (8, 9, 21) for driving the second and fourth transistors, the first to fourth transistors being driven by way of the first drive means and the second drive means in such a manner that the fourth transistor is switched on/off a plurality of times during a period over which the first transistor is switched on, and the second transistor is switched on/off a plurality of times during a period over which the third transistor is switched on; and detection means for switching off the drive circuit when, during powering of the inductive load, a voltage applied to the sensing resistor is continuously equal to or lower than a threshold value for ground short detection, for a predetermined time that is longer than a period over which the second and fourth transistors are switched on/off.
A method of calibrating a towed or self-propelled utility vehicle having at least one steerable axle or an assembly comprising a self-propelled utility vehicle in the form of a towing vehicle and a towed utility vehicle in the form of a trailer device having at least one steerable axle, more specifically for calibrating at least the positions for the end stops and for straight-ahead travel of the or each steerable axle of the utility vehicle, characterised in that in the stopped condition of the utility vehicle the end stops of the or each steerable axle of the utility vehicle are automatically encountered and the positions of those end stops are automatically ascertained for calibration purposes; for the or each steerable axle of the utility vehicle a provisional position for straight-ahead travel of the respective steerable axle is automatically ascertained from the positions of the end stops by averaging; and when during a straight-ahead travel of the utility vehicle in a plane the or each steerable axle of the utility vehicle is released in such a way that it passively tracks during the straight-ahead travel, a definitive position for the straight-ahead travel of the respective steerable axle is automatically ascertained for calibration purposes.