mhurhangee/ep-ind-claims huggingface dataset:
Tyre comprising a carcass ply connecting two beads via two sidewalls, the said carcass ply being surmounted radially towards the outside of the tyre by a crown reinforcing zone which is itself surmounted radially towards the outside of the tyre by a tread, the crown reinforcing zone comprising a plurality of reinforcing strips arranged over at least one ply of strips, the said strips being arranged so that they are juxtaposed and at an angle less than or equal to 15° with respect to the circumferential direction, each reinforcing strip being made up of a laminate of at least 3 composite layers, each composite layer containing oriented fibres (15, 15', 15") having a tensile modulus greater than or equal to 55 GPa, measured according to Standard ASTM D4848-98 from 2012, which are parallel to one another and coated in a polymer matrix, characterized in that each laminate comprises: - n interior composite layer(s) each having fibres of which the angle with the circumferential direction is, in terms of absolute value, less than or equal to 10°, n being a number greater than or equal to 1, preferably ranging from 1 to 20, and in the case where n>1, these interior composite layers being juxtaposed with one another and flanked on each side respectively by m exterior composite layer(s), each exterior composite layer having fibres (15', 15") that make with the circumferential direction an angle distinct from 0°, m ranging from 1 to 8 and, in the case where m>1, the angle of the fibres (15', 15") of the successive exterior composite layers positioned on the one same side of the interior composite layer or layers being identical or different. - n interior composite layer(s) each having fibres of which the angle with the circumferential direction is, in terms of absolute value, less than or equal to 10°, n being a number greater than or equal to 1, preferably ranging from 1 to 20, and in the case where n>1, these interior composite layers being juxtaposed with one another and flanked on each side respectively by m exterior composite layer(s), each exterior composite layer having fibres (15', 15") that make with the circumferential direction an angle distinct from 0°, m ranging from 1 to 8 and, in the case where m>1, the angle of the fibres (15', 15") of the successive exterior composite layers positioned on the one same side of the interior composite layer or layers being identical or different.
A method of forming reinforced packages, the method comprising: forming an attached web (W') by adhering a blank to a web of material; moving the attached web (W') in a downstream direction through at least a tube forming assembly and a carton forming assembly, the moving the attached web (W') comprising moving the blank with the web of material; at least partially forming a tube by folding at least a portion of the web of material as the attached web (W') moves through the tube forming assembly, the at least partially forming the tube being after the forming the attached web (W'); forming a reinforcement sleeve by folding at least a portion of the blank so that the reinforcement sleeve extends at least partially around the tube as the attached web (W') moves through the carton forming assembly; and forming a reinforced package comprising the reinforcement sleeve and a tube portion by separating the tube portion from a remainder of the tube, the reinforcement sleeve being adhered to the tube portion. forming an attached web (W') by adhering a blank to a web of material; moving the attached web (W') in a downstream direction through at least a tube forming assembly and a carton forming assembly, the moving the attached web (W') comprising moving the blank with the web of material; at least partially forming a tube by folding at least a portion of the web of material as the attached web (W') moves through the tube forming assembly, the at least partially forming the tube being after the forming the attached web (W'); forming a reinforcement sleeve by folding at least a portion of the blank so that the reinforcement sleeve extends at least partially around the tube as the attached web (W') moves through the carton forming assembly; and forming a reinforced package comprising the reinforcement sleeve and a tube portion by separating the tube portion from a remainder of the tube, the reinforcement sleeve being adhered to the tube portion.
A pulley assembly (16;316), comprising: a pulley body (62;362) having a bore (60;360) therethrough and defining an inner surface, the pulley body rotatable in a predominate direction; a hub (40;340) defining an axis of rotation and having an outer surface, wherein the hub (40;340) is disposed within the pulley body (62;362); and a one-way clutch mechanism (44;344) radially surrounding the hub (40;340), the one way clutch mechanism (44;344) including an engaged position and a disengaged position, wherein the hub (40;340) and the pulley body (62;362) rotate together in the predominate direction if the one-way clutch mechanism (44;344) is in the engaged position, and wherein the hub (40;340) freely rotates with respect to the pulley body (62;362) if the one-way clutch mechanism (44;344) is in the disengaged position; characterized by comprising a clutch actuator (48;348) having an upper ramp component (94;394) and a lower ramp component (98;398) and operatively connected for axial expansion when the pulley body (62;362) rotates in the predominant direction, wherein the one-way clutch mechanism is interposed between the outer surface of the hub and the clutch actuator with the one-way clutch mechanism seated in a bore of the lower ramp component, or the one-way clutch mechanism is interposed between the inner surface of the pulley body and the clutch actuator with the hub seated in a bore of the lower ramp component. a pulley body (62;362) having a bore (60;360) therethrough and defining an inner surface, the pulley body rotatable in a predominate direction; a hub (40;340) defining an axis of rotation and having an outer surface, wherein the hub (40;340) is disposed within the pulley body (62;362); and a one-way clutch mechanism (44;344) radially surrounding the hub (40;340), the one way clutch mechanism (44;344) including an engaged position and a disengaged position, wherein the hub (40;340) and the pulley body (62;362) rotate together in the predominate direction if the one-way clutch mechanism (44;344) is in the engaged position, and wherein the hub (40;340) freely rotates with respect to the pulley body (62;362) if the one-way clutch mechanism (44;344) is in the disengaged position; characterized by comprising a clutch actuator (48;348) having an upper ramp component (94;394) and a lower ramp component (98;398) and operatively connected for axial expansion when the pulley body (62;362) rotates in the predominant direction, wherein the one-way clutch mechanism is interposed between the outer surface of the hub and the clutch actuator with the one-way clutch mechanism seated in a bore of the lower ramp component, or the one-way clutch mechanism is interposed between the inner surface of the pulley body and the clutch actuator with the hub seated in a bore of the lower ramp component.
A motion prediction method, comprising: determining a plurality of candidate units corresponding to a current unit of a current frame, wherein the candidate units comprise at least a neighboring unit of the current unit in the current frame and at least a collocated unit of the current unit; obtaining a plurality of motion vectors of the candidate units; calculating a plurality of temporal scaling factors of the candidate units according to a plurality of respective temporal distances between respective reference frames of the motion vectors and the current frame; scaling the motion vectors of the candidate units according to the temporal scaling factors to obtain a plurality of scaled motion vectors; characterized by calculating a plurality of motion difference values between the scaled motion vectors of the candidate units and previously decoded motion vectors of a plurality of coded units corresponding to the current unit, summing the motion difference values corresponding to the candidate units according to a series of weights to obtain a plurality of weighted sums respectively corresponding to the candidate units sorting the weighted sums and selecting the candidate unit corresponding to the smallest weighted sum to be a chosen candidate unit. determining a plurality of candidate units corresponding to a current unit of a current frame, wherein the candidate units comprise at least a neighboring unit of the current unit in the current frame and at least a collocated unit of the current unit; obtaining a plurality of motion vectors of the candidate units; calculating a plurality of temporal scaling factors of the candidate units according to a plurality of respective temporal distances between respective reference frames of the motion vectors and the current frame; scaling the motion vectors of the candidate units according to the temporal scaling factors to obtain a plurality of scaled motion vectors; characterized by calculating a plurality of motion difference values between the scaled motion vectors of the candidate units and previously decoded motion vectors of a plurality of coded units corresponding to the current unit, summing the motion difference values corresponding to the candidate units according to a series of weights to obtain a plurality of weighted sums respectively corresponding to the candidate units sorting the weighted sums and selecting the candidate unit corresponding to the smallest weighted sum to be a chosen candidate unit.
A method for restricting network access between nodes in an ad-hoc communications network, said nodes operating to transmit and receive signals to and from other nodes in said ad-hoc communications network, the method comprising: operating a wireless router in said ad-hoc communications network to receive a request for network access from a mobile node; controlling said wireless router to communicate said request for network access via an Access Point to an Authentication, Authorization and Accounting, AAA, server; controlling said AAA server to communicate to said wireless router via said Access Point a request for distance information for the mobile node; in response to said request for said distance information, controlling said wireless router to calculate said distance information of said mobile node and communicate said distance information to said AAA server via said Access Point; and controlling said AAA server to: (i) calculate a position of said mobile node, and determine whether said mobile node is within a secure zone that is configured to guarantee that the mobile node is within a network access restriction boundary; and (ii) respond to the request for network access communicated by said wireless router, including allowing said mobile node to have access to said ad-hoc communications network if said position of said mobile node is within the secure zone. operating a wireless router in said ad-hoc communications network to receive a request for network access from a mobile node; controlling said wireless router to communicate said request for network access via an Access Point to an Authentication, Authorization and Accounting, AAA, server; controlling said AAA server to communicate to said wireless router via said Access Point a request for distance information for the mobile node; in response to said request for said distance information, controlling said wireless router to calculate said distance information of said mobile node and communicate said distance information to said AAA server via said Access Point; and controlling said AAA server to: (i) calculate a position of said mobile node, and determine whether said mobile node is within a secure zone that is configured to guarantee that the mobile node is within a network access restriction boundary; and (ii) respond to the request for network access communicated by said wireless router, including allowing said mobile node to have access to said ad-hoc communications network if said position of said mobile node is within the secure zone. (i) calculate a position of said mobile node, and determine whether said mobile node is within a secure zone that is configured to guarantee that the mobile node is within a network access restriction boundary; and (ii) respond to the request for network access communicated by said wireless router, including allowing said mobile node to have access to said ad-hoc communications network if said position of said mobile node is within the secure zone.
A tire comprising: a tire frame member formed in a ring shape; and a belt layer that is provided at an outer periphery of the tire frame member, and in which a resin-covered cord, which is configured by covering a reinforcing cord with a covering resin, is wound onto the outer periphery of the tire frame member in a spiral pattern around a tire circumferential direction, and is bonded to the tire frame member, characterized in that, a chamfered portion being formed at a tire axial direction end portion of a tire radial direction inside face of the resin-covered cord. a tire frame member formed in a ring shape; and a belt layer that is provided at an outer periphery of the tire frame member, and in which a resin-covered cord, which is configured by covering a reinforcing cord with a covering resin, is wound onto the outer periphery of the tire frame member in a spiral pattern around a tire circumferential direction, and is bonded to the tire frame member, characterized in that, a chamfered portion being formed at a tire axial direction end portion of a tire radial direction inside face of the resin-covered cord.
A method for stabilizing the constant accommodation of an eye of a patient, the method comprising the steps of: - arranging a target object such that it can be fixated by the patient along an optical axis, - arranging on the optical axis a beam splitter adapted to reflect measurement radiation from an aberrometer along the axis towards the eye and measurement radiation coming from the eye towards the aberrometer, - arranging in the light path from the target object to the eye a first optical unit adapted to compensate spherical ametropia of the eye, - arranging in said light path a second optical unit adapted to compensate astigmatic ametropia, and is characterized in that - the second optical unit comprises at least two cylindrical lenses (20, 22), and wherein at least one of the cylindrical lenses is rotatably arranged around the optical axis. - arranging a target object such that it can be fixated by the patient along an optical axis, - arranging on the optical axis a beam splitter adapted to reflect measurement radiation from an aberrometer along the axis towards the eye and measurement radiation coming from the eye towards the aberrometer, - arranging in the light path from the target object to the eye a first optical unit adapted to compensate spherical ametropia of the eye, - arranging in said light path a second optical unit adapted to compensate astigmatic ametropia, and is characterized in that - the second optical unit comprises at least two cylindrical lenses (20, 22), and wherein at least one of the cylindrical lenses is rotatably arranged around the optical axis.
A method for changing operation states of a user equipment, the method comprising, at the user equipment: transmitting stationary state information indicating mobility information of the user equipment to a base station; receiving (330, 535) a control message comprising a state indication and DRX and measurement configuration information of the user equipment based on the stationary state information from the base station; determining a preferred operation state of the user equipment based on at least one parameter; determining a current operation state based on at least one of the configuration information of the user equipment and the state indication; and transmitting, when the preferred operation state is not equal to the current operation state, a state change request to a base station. transmitting stationary state information indicating mobility information of the user equipment to a base station; receiving (330, 535) a control message comprising a state indication and DRX and measurement configuration information of the user equipment based on the stationary state information from the base station; determining a preferred operation state of the user equipment based on at least one parameter; determining a current operation state based on at least one of the configuration information of the user equipment and the state indication; and transmitting, when the preferred operation state is not equal to the current operation state, a state change request to a base station.
A hair extension kit comprising: a support backing (402; 1102; 1112; 3004; 3502; 3602) including a front side and a back side; an adhesive layer (406; 2506; 3008; 3036) affixed to the front side of the support backing; and a hair extension set removably adhered to the adhesive layer, the hair extension set including: a hair extension support member (106; 3708); and a plurality of hair fibers in a single layer affixed to the hair extension support member, characterized in that a receptive coating is applied to the plurality of hair fibers to form a receptive coating layer configured to receive printer ink. a support backing (402; 1102; 1112; 3004; 3502; 3602) including a front side and a back side; an adhesive layer (406; 2506; 3008; 3036) affixed to the front side of the support backing; and a hair extension set removably adhered to the adhesive layer, the hair extension set including: a hair extension support member (106; 3708); and a plurality of hair fibers in a single layer affixed to the hair extension support member, characterized in that a receptive coating is applied to the plurality of hair fibers to form a receptive coating layer configured to receive printer ink. a hair extension support member (106; 3708); and a plurality of hair fibers in a single layer affixed to the hair extension support member, characterized in that a receptive coating is applied to the plurality of hair fibers to form a receptive coating layer configured to receive printer ink.
A method of cooling an electronic device, the electronic device comprising a case, a printed circuit board, and internal components mounted on the printed circuit board, the method comprising: inserting, during assembly of the electronic device, a heat conductive filler having elasticity and a substantially flat shape, into a space between the case and one or more of the internal components, the heat conductive filler not being attached to the case; wherein after the electronic device has been assembled, the internal components, the printed circuit board and the heat conductive filler are disposed inside the case, and the heat conductive filler is compressed to be in close contact with at least one of the internal components such that there is substantially no space between a surface of the heat conductive filler and a surface of any internal component opposing the heat conductive filler; wherein the heat conductive filler is partially disposed between one surface of the case and one or more of the internal components such that the heat conductive filler is in direct contact with only at least one heat-generating internal component among all of the internal components once the electronic device has been assembled, and wherein the heat conductive filler is not moulded to a shape of the only at least one heat-generating internal component when disposed between the case and the one or more internal components and not compressed. inserting, during assembly of the electronic device, a heat conductive filler having elasticity and a substantially flat shape, into a space between the case and one or more of the internal components, the heat conductive filler not being attached to the case; wherein after the electronic device has been assembled, the internal components, the printed circuit board and the heat conductive filler are disposed inside the case, and the heat conductive filler is compressed to be in close contact with at least one of the internal components such that there is substantially no space between a surface of the heat conductive filler and a surface of any internal component opposing the heat conductive filler; wherein the heat conductive filler is partially disposed between one surface of the case and one or more of the internal components such that the heat conductive filler is in direct contact with only at least one heat-generating internal component among all of the internal components once the electronic device has been assembled, and wherein the heat conductive filler is not moulded to a shape of the only at least one heat-generating internal component when disposed between the case and the one or more internal components and not compressed.
An accumulator of logs of wound tissue paper web, comprising: - at least one pair of chains (7A, 7B) substantially parallel to each other, to which cradles are pivotally connected for receiving the logs to be stored, the cradles being mutually spaced along said pair of chains, wherein each cradle is connected to said pair of chains by means of constraining members; - a log inlet; - a log outlet; wherein said chains are driven around wheels (13, 17) with movable axes supported by a movable support and wheels (9, 11) with fixed axes, said wheels subdividing the two chains into storing branches in which logs are stored and empty branches, a lifting and lowering movement of said movable support modifying the length of the storing branches and the empty branches to modify the quantity of logs stored in the accumulator; characterised in that on each chain is arranged at least one constraining member intermediate between two consecutive cradles connected to said chains (7A, 7B). - at least one pair of chains (7A, 7B) substantially parallel to each other, to which cradles are pivotally connected for receiving the logs to be stored, the cradles being mutually spaced along said pair of chains, wherein each cradle is connected to said pair of chains by means of constraining members; - a log inlet; - a log outlet;
Compounds of formula: wherein R, R 1, R 2 and R 3 are the same or different and are independently selected from hydrogen and a residue of a carboxylic acid, wherein the ester groups R-O-, R 1 -O-, R 2 -O- and R 3 -O-, respectively, are hydrolyzable to a pH ranging between 4.5 and 7, provided that R, R 1, R 2 and R 3 are not simultaneously hydrogen; and wherein at least one of R, R 1, R 2 and R 3 is a residue of pivalic acid.
Apparatus for extruding polymer mixtures comprising a twin- or multiscrew extruder with corotating screws (2, 3), where, at least starting from the plastifying zone of the extruder and the zones subsequent thereto in the direction of conveying, as far as the polymer-melt discharge at the die plate, the ratio between external screw diameter (Da) and internal barrel diameter over a longitudinal proportion of at least 50% of the screw in the region starting from the plastifying zone of the extruder and the zones subsequent thereto in the direction of conveying, as far as the polymer-melt discharge at the die plate, is smaller than 98.4%, and the sum of external screw diameter (Da) and screw root diameter (Di) divided by twice the axial separation is smaller than 99.1%; and where, at least staring from the plastifying zone of the extruder and the zones subsequent thereto in the direction of conveying, as far as the polymer-melt discharge at the die plate, at least one conveying element is present, characterized in that, for at least one conveying element, the ratio between external screw diameter (Da) and internal barrel diameter is smaller than 98.4% and the sum of external screw diameter (Da) and screw root diameter (Di) divided by twice the axial separation is smaller than 99.1%.