mhurhangee/ep-ind-claims huggingface dataset:
A sliding ball type constant velocity joint for a vehicle, comprising: a shaft which receives rotational power from an engine and rotates; an outer race which is installed at an end of the shaft and having grooves formed therein; an inner race installed in the outer race; a plurality of balls for transmitting the rotational power of the outer race to the inner race; and a cage for supporting the balls, wherein a center (02; O1) of a radius (Ri1; Ri2) of an outer spherical surface (B21; B22) of the inner race is formed at a different location from a center (O a) of a radius (RC a) of an inner spherical surface of the cage, and the outer spherical surface of the inner race is divided into two sections (B21; B22) having different radii (Ri1; Ri2), characterized in that the centers (O1; O2) of the radii (R1; R2) of the two sections (B21; B22) of the outer spherical surface of the inner race are formed at locations axially and radially moved from the center of the radius (Rc) of the inner spherical surface of the cage. a shaft which receives rotational power from an engine and rotates; an outer race which is installed at an end of the shaft and having grooves formed therein; an inner race installed in the outer race; a plurality of balls for transmitting the rotational power of the outer race to the inner race; and a cage for supporting the balls, wherein a center (02; O1) of a radius (Ri1; Ri2) of an outer spherical surface (B21; B22) of the inner race is formed at a different location from a center (O a) of a radius (RC a) of an inner spherical surface of the cage, and the outer spherical surface of the inner race is divided into two sections (B21; B22) having different radii (Ri1; Ri2), characterized in that the centers (O1; O2) of the radii (R1; R2) of the two sections (B21; B22) of the outer spherical surface of the inner race are formed at locations axially and radially moved from the center of the radius (Rc) of the inner spherical surface of the cage.
An apron conveyor for transporting material in mining and extraction systems, the apron conveyor comprising: a plurality of channel elements arranged in a series between two stations (3, 4), each station (3, 4) accommodating a sprocket; a first strand constituting a material-transport strand and being guided in the plurality channel elements; a second strand constituting a return strand oppositely-moving to the first strand and being guided in the plurality of channel elements; an endless conveyor including a conveyor chain and a plurality of transport plates, the endless conveyor being adapted in operation to circulate between the two sprockets in the first strand and the second strand, the two sprockets being used to redirect the conveyor chain, wherein the conveyor chain is provided with a plurality of chain links (12, 13) and the plurality of transport plates are connected to the plurality of chain links (12, 13) of the conveyor chain, the transport plates each including a chain connector part and a plate part connected to the chain connector part such that at least a movable plate section of the plate part is moveable relative to the chain connector part, the movable plate section of the plate part being pivotable downward relative to the chain connector part in a delivery area for the transported material along the running direction of the conveyor chain. a plurality of channel elements arranged in a series between two stations (3, 4), each station (3, 4) accommodating a sprocket; a first strand constituting a material-transport strand and being guided in the plurality channel elements; a second strand constituting a return strand oppositely-moving to the first strand and being guided in the plurality of channel elements; an endless conveyor including a conveyor chain and a plurality of transport plates, the endless conveyor being adapted in operation to circulate between the two sprockets in the first strand and the second strand, the two sprockets being used to redirect the conveyor chain, wherein the conveyor chain is provided with a plurality of chain links (12, 13) and the plurality of transport plates are connected to the plurality of chain links (12, 13) of the conveyor chain, the transport plates each including a chain connector part and a plate part connected to the chain connector part such that at least a movable plate section of the plate part is moveable relative to the chain connector part, the movable plate section of the plate part being pivotable downward relative to the chain connector part in a delivery area for the transported material along the running direction of the conveyor chain.
An electric motorcycle which drives a drive wheel by driving power generated by an electric motor, comprising: a charging port which is provided in a vehicle body and to which an outside charging connector connected to an outside electric power supply is removably attachable; and a battery which is built into the vehicle body and configured to be charged with electric power supplied from the outside electric power supply in a state in which the outside charging connector is connected to the charging port, and to discharge the electric power stored therein to supply the electric power to the electric motor; characterized in that the electric motorcycle further comprises a side stand which is pivotally mounted to a lower portion of the vehicle body at the same side in the vehicle width direction as the charging port and allows the vehicle body to stand independently in a state in which the vehicle body is inclined in one direction in the vehicle width direction, and in that the charging port is oriented in the one direction in the vehicle width direction and in the state in which the vehicle body is standing independently by using the side stand, the charging port is inclined inward in the vehicle width direction in a direction from its upper portion to its lower portion. a charging port which is provided in a vehicle body and to which an outside charging connector connected to an outside electric power supply is removably attachable; and a battery which is built into the vehicle body and configured to be charged with electric power supplied from the outside electric power supply in a state in which the outside charging connector is connected to the charging port, and to discharge the electric power stored therein to supply the electric power to the electric motor;
A rotary-wing drone, comprising: - a drone body comprising an electronic board controlling the piloting of the drone, wireless communication means and a plurality of linking arms, - said wireless communication means being connected to at least one communication antenna, - a plurality of propulsion units mounted at the distal end of respective linking arms, - at least one support, adapted to maintain said drone body remote from the ground, characterized in that said at least one support comprises an antenna housing adapted to receive said antenna, said antenna housing being provided with means (52, 53) for holding said antenna on said support. - a drone body comprising an electronic board controlling the piloting of the drone, wireless communication means and a plurality of linking arms, - said wireless communication means being connected to at least one communication antenna, - a plurality of propulsion units mounted at the distal end of respective linking arms, - at least one support, adapted to maintain said drone body remote from the ground,
A computer-implemented method for receiving user input to a data processing device having a user input component, a memory and a display (200; 400), the user interface component for enabling a user to provide input to the data processing device, the method comprising, by the data processing device: i) displaying a plurality of graphical user interface, GUI, elements on the display in an ordered arrangement (205a-d; 410a-j), each of the plurality of GUI elements having an associated unique index corresponding to a position of the respective GUI element within the ordered arrangement; ii) receiving, via the user input component, one or more selection events in a selection order, each of the one or more selection events corresponding to one of the plurality of GUI elements, wherein a time between adjacent selection events of the one or more selection events is less than a threshold time; and iii) reordering the plurality of GUI elements on the display based on the selection order. i) displaying a plurality of graphical user interface, GUI, elements on the display in an ordered arrangement (205a-d; 410a-j), each of the plurality of GUI elements having an associated unique index corresponding to a position of the respective GUI element within the ordered arrangement; ii) receiving, via the user input component, one or more selection events in a selection order, each of the one or more selection events corresponding to one of the plurality of GUI elements, wherein a time between adjacent selection events of the one or more selection events is less than a threshold time; and iii) reordering the plurality of GUI elements on the display based on the selection order.
A super absorbent polymer comprising: a base polymer powder including a cross-linked polymer obtained by crosslinking polymerization of a water-soluble ethylenically unsaturated monomer having an acidic group of which at least a part is neutralized in the presence of an encapsulated foaming agent; and a surface cross-linked layer that is further cross-linked from the cross-linked polymer and is formed on the base polymer powder, wherein the encapsulated foaming agent has a structure including a core containing hydrocarbon and a shell surrounding the core and formed of a thermoplastic resin, and has an average diameter before expansion, measured as disclosed in the specification, of 5 to 20 μ m, a maximum expansion size in air, measured as disclosed in the specification, of 50 to 190 μ m and a maximum expansion ratio in air, measured as disclosed in the specification, of 8.5 to 10 times, wherein a ratio (M 1 /M 0 *100) of the super absorbent polymer particle (M 1) having three or more pores with a diameter, as measured through scanning electron microscope, of 20 to 200 μ m on the surface to the super absorbent polymer particle (M 0) having a particle diameter, as measured by sieving, of 300 to 425 μ m is 10% or more, and wherein a distilled water absorption capacity is at least 150 g/g, and wherein the ratio (M 1 /M 0 *100), the distilled water absorption capacity and the CRC are measured as disclosed on the specification. wherein the encapsulated foaming agent has a structure including a core containing hydrocarbon and a shell surrounding the core and formed of a thermoplastic resin, and has an average diameter before expansion, measured as disclosed in the specification, of 5 to 20 μ m, a maximum expansion size in air, measured as disclosed in the specification, of 50 to 190 μ m and a maximum expansion ratio in air, measured as disclosed in the specification, of 8.5 to 10 times, wherein a ratio (M 1 /M 0 *100) of the super absorbent polymer particle (M 1) having three or more pores with a diameter, as measured through scanning electron microscope, of 20 to 200 μ m on the surface to the super absorbent polymer particle (M 0) having a particle diameter, as measured by sieving, of 300 to 425 μ m is 10% or more, and wherein a distilled water absorption capacity is at least 150 g/g, and wherein the ratio (M 1 /M 0 *100), the distilled water absorption capacity and the CRC are measured as disclosed on the specification.
An optoelectronic scanning system for determining the shape and/or volume of objects, comprising: - at least one optoelectronic scanning device comprising a number of light-emitting units located along a first axis and for sequentially generating a number of light beams (F I) perpendicular to the first axis and defining a scanning plane; and at least one light-receiving unit for picking up each beam (F I) reflected by a respective point (P I) on an edge at the intersection between said scanning plane and said object, and for supplying a number of signals (S N, S D) containing information about said edge; - conveying means for controlling relative translation between said scanning plane and said object; - measuring means for supplying a position signal (S P) indicating the instantaneous position of the object with respect to said scanning plane; and - processing means for receiving and processing the position signal (S P) and the signals (S N,S D) containing information about said edge of the object formed in the course of said translation, so as to determine the shape and/or volume of the object; characterized in that said processing means are arranged for determining, for each received beam (F I), two dimensions (X I, Y I) of the respective impact point (P I), a first dimension (X I) containing the information relative to the position of the impact point (P I) of the beam (F I) with respect to said first axis and a second dimension (Y I) containing the information relative to the position of the impact point (P I) of the beam (F I) with respect to a second axis lying in said scanning plane and being perpendicular to said first axis. - at least one optoelectronic scanning device comprising a number of light-emitting units located along a first axis and for sequentially generating a number of light beams (F I) perpendicular to the first axis and defining a scanning plane; and at least one light-receiving unit for picking up each beam (F I) reflected by a respective point (P I) on an edge at the intersection between said scanning plane and said object, and for supplying a number of signals (S N, S D) containing information about said edge; - conveying means for controlling relative translation between said scanning plane and said object; - measuring means for supplying a position signal (S P) indicating the instantaneous position of the object with respect to said scanning plane; and - processing means for receiving and processing the position signal (S P) and the signals (S N,S D) containing information about said edge of the object formed in the course of said translation, so as to determine the shape and/or volume of the object;
A ceramic honeycomb filter comprising a cordierite-type ceramic honeycomb structure having large numbers of flow paths (15a,15b) partitioned by porous cell walls, and plugs (13a, 13b) formed in end portions of predetermined flow paths (15a, 15b) of said ceramic honeycomb structure; said cell walls having a thermal expansion coefficient Tw (x 10 -7 /°C) of 10 or less in the flow path direction between 40°C and 800°C; said plugs (13a, 13b) comprising at least ceramic particles, and 5 to 25 parts by mass of an amorphous oxide matrix per 100 parts by mass of said ceramic particles; said ceramic particles comprising 42 to 90% by mass of amorphous silica particles, and 10 to 58% by mass of cordierite particles; and said amorphous silica particles comprising 4 to 30% by mass of first silica particles having a median particle diameter of 10 to 40 μm, and 70 to 96% by mass of second silica particles having a median particle diameter of 70 to 200 μm. said cell walls having a thermal expansion coefficient Tw (x 10 -7 /°C) of 10 or less in the flow path direction between 40°C and 800°C; said plugs (13a, 13b) comprising at least ceramic particles, and 5 to 25 parts by mass of an amorphous oxide matrix per 100 parts by mass of said ceramic particles; said ceramic particles comprising 42 to 90% by mass of amorphous silica particles, and 10 to 58% by mass of cordierite particles; and said amorphous silica particles comprising 4 to 30% by mass of first silica particles having a median particle diameter of 10 to 40 μm, and 70 to 96% by mass of second silica particles having a median particle diameter of 70 to 200 μm.
A method for preparing a tubular manufacture such as a hosiery item or the like for automated pick-up at the end of its formation on a double-cylinder circular machine with at least one feed or drop, characterized in that it comprises at least the following steps: - a first step, which consists in transferring or retaining all the needles to or in the lower needle cylinder with the loops of the lastly formed row of knitting of the manufacture engaged in the upper heads of the needles, and tensioning the manufacture downward inside the lower needle cylinder; - a second step, which consists in moving all the needles to the tuck-stitch position after they have formed the loops of the last row of knitting; - a third step, which consists in pushing upward the portion of the manufacture engaged with the needles by means of a pusher and suction tube arranged internally and coaxially to said lower needle cylinder which is axially movable with respect to said lower needle cylinder; - a fourth step, which consists in disengaging the sinkers from the manufacture so that said manufacture, due to the upward thrust, moves so that the loops of its last row of knitting are in the upper heads of the needles; - a fifth step, which consists in lifting the needles into the dropped-stitch position, keeping the manufacture pushed upward in order to keep the loops of the last row of knitting in the upper heads of the needles. - a first step, which consists in transferring or retaining all the needles to or in the lower needle cylinder with the loops of the lastly formed row of knitting of the manufacture engaged in the upper heads of the needles, and tensioning the manufacture downward inside the lower needle cylinder; - a second step, which consists in moving all the needles to the tuck-stitch position after they have formed the loops of the last row of knitting; - a third step, which consists in pushing upward the portion of the manufacture engaged with the needles by means of a pusher and suction tube arranged internally and coaxially to said lower needle cylinder which is axially movable with respect to said lower needle cylinder; - a fourth step, which consists in disengaging the sinkers from the manufacture so that said manufacture, due to the upward thrust, moves so that the loops of its last row of knitting are in the upper heads of the needles; - a fifth step, which consists in lifting the needles into the dropped-stitch position, keeping the manufacture pushed upward in order to keep the loops of the last row of knitting in the upper heads of the needles.
Displacement arrangement for displacing a leaf, in particular a sliding leaf, of a window, a door or the like relative to a fixed surround of the window or the door in a direction which is transverse, in particular perpendicular, relative to the main plane of the window or the door, having an actuation mechanism which can be arranged on the leaf and which can be moved with at least one portion in the circumferential direction of the rebate and having a first control element (9, 17) which is arranged on the portion of the actuation mechanism, and having a second control element which is arranged on a guiding member (8, 15), which is intended to be guided on the fixed surround and to be arranged on the leaf so as to be able to be moved transversely relative to the circumferential direction of the rebate, wherein one of the control elements is constructed as a control contour which extends at least partially transversely relative to the circumferential direction of the rebate and one of the control elements (9, 17) is constructed as a control projection which cooperates with the control contour, characterised in that the guiding member (8, 15) has a roller (13, 16) which can be rotated about a rotation axis orientated perpendicularly to the circumferential direction of the rebate and parallel to the main plane of the window or the door and which is supported on a surround portion (56, 57) when the displacement arrangement is mounted.
A surgical instrument comprising: a body; a thermal element disposed on the body and configured to receive oscillating electrical energy, the thermal element comprising a conductor and a ferromagnetic material (65, 78) covering at least a portion of the conductor; and an information storage device for storing information relative to a configuration parameter of the thermal element; wherein the information storage device is disposed in communication with a power supply configured to deliver oscillating electrical energy to the thermal element such that the information relative to the configuration parameter of the thermal element may be accessed and used to control delivery of the oscillating electrical energy to the thermal element; and wherein the thermal element is coupled to the power supply, and wherein the power supply is configured to deliver oscillating electrical energy to the thermal element according to the configuration parameter stored in the information storage device; characterized in that the conductor defines a skin depth based on the electrical resistivity of the conductor, the magnetic permeability of the conductor, and the frequency of the delivered oscillating electrical energy, and the ferromagnetic material has a thickness of approximately five times the skin depth. a body; a thermal element disposed on the body and configured to receive oscillating electrical energy, the thermal element comprising a conductor and a ferromagnetic material (65, 78) covering at least a portion of the conductor; and an information storage device for storing information relative to a configuration parameter of the thermal element; wherein the information storage device is disposed in communication with a power supply configured to deliver oscillating electrical energy to the thermal element such that the information relative to the configuration parameter of the thermal element may be accessed and used to control delivery of the oscillating electrical energy to the thermal element; and wherein the thermal element is coupled to the power supply, and wherein the power supply is configured to deliver oscillating electrical energy to the thermal element according to the configuration parameter stored in the information storage device; characterized in that the conductor defines a skin depth based on the electrical resistivity of the conductor, the magnetic permeability of the conductor, and the frequency of the delivered oscillating electrical energy, and the ferromagnetic material has a thickness of approximately five times the skin depth.
A method for the preparation of an edible allulose caramel comprising the steps of (a) providing an allulose composition; wherein the total content of saccharides including the content of allulose is at least 50 wt.-% relative to the total weight of the allulose composition; and wherein the allulose composition comprises an acid and/or a base; and (b) caramelizing at least a portion of the allulose that is contained in said allulose composition; wherein step (b) is performed until the obtained caramel has a color of class I (E150a), class II (E150b), class III (E150c), or class IV (E150d). (a) providing an allulose composition; wherein the total content of saccharides including the content of allulose is at least 50 wt.-% relative to the total weight of the allulose composition; and wherein the allulose composition comprises an acid and/or a base; and (b) caramelizing at least a portion of the allulose that is contained in said allulose composition; wherein step (b) is performed until the obtained caramel has a color of class I (E150a), class II (E150b), class III (E150c), or class IV (E150d).