mhurhangee/ep-ind-claims huggingface dataset:
A corrugated paperboard pallet produced from two flat blanks (70,50) which comprise a pallet top and a pallet bottom; the blanks (70,50) are each folded to produce only two parallel vertically extending double thickness ribs (71,51), three horizontal panels (40,45), two vertical side walls (41,42,46,47) and two horizontal flaps (43,44,48,49); the ribs of said pallet top and the pallet bottom lock each other from opening in the center of the pallet by intersecting perpendicularly with notches; and the horizontal flaps (43,44,48,49) lock the ribs (71,51) from opening at the edges of the pallet by intersecting perpendicularly with notches (57,58,75,55), and the vertical sidewalls (41,42,46,47) comprise vertical flaps (59,79) that open inward defining fork passages (31,32) whereby the vertical flaps lock the horizontal flaps (43,44,48,49) from opening.
Rail clip assembly (1, 2), comprising a first body (10, 20) and a second body (11, 21), wherein the first and second bodies are arranged for being superposable on each other and for being removably fastened to each other and to a rail support by a same connector, and wherein: the first body (10, 20) comprises an abutment surface adapted for abutment with a lateral face of a foot of a rail, either one of the first and second bodies comprises a projecting member, projecting from the abutment surface when assembled and adapted for overlying the foot of the rail, and a resilient member attached to a downwards facing surface of the projecting member and adapted to be interposed between the rail foot and the projecting member for providing resilient clamping of the foot of the rail, the first and second bodies comprise corresponding apertures (122, 112) for receiving the connector, one of the apertures being oblong with a longer axis extending in a direction oblique to the abutment surface, to enable the first body to assume different positions relative to the second body, the first and second bodies comprise first corresponding surfaces (123, 111) configured for providing force transmitting contact between the first and second bodies when assembled, characterised in that the first and second bodies comprise second corresponding surfaces (124, 114) configured to enter into force transmitting engagement with each other upon fastening the assembly, wherein the second surfaces extend in a direction of extent of the oblong aperture and have an inclination at an angle between 20° and 85° relative to the horizontal when considered in a plane perpendicular to the longer axis, and wherein the first surfaces (123, 111) extend horizontally or inclined at an angle smaller than 20° relative to the horizontal when considered in the plane, such that the engagement of the second surfaces with each other produces a net resulting force on the first body oriented towards the rail and resisting backing movement of the first body away from the lateral face of the rail foot upon fastening the connector. the first body (10, 20) comprises an abutment surface adapted for abutment with a lateral face of a foot of a rail, either one of the first and second bodies comprises a projecting member, projecting from the abutment surface when assembled and adapted for overlying the foot of the rail, and a resilient member attached to a downwards facing surface of the projecting member and adapted to be interposed between the rail foot and the projecting member for providing resilient clamping of the foot of the rail, the first and second bodies comprise corresponding apertures (122, 112) for receiving the connector, one of the apertures being oblong with a longer axis extending in a direction oblique to the abutment surface, to enable the first body to assume different positions relative to the second body, the first and second bodies comprise first corresponding surfaces (123, 111) configured for providing force transmitting contact between the first and second bodies when assembled,
A surgical tool for forming an incision in ocular tissue, the surgical tool comprising: a surgical blade; a drive belt; a rocker assembly configured to cause rotation of the surgical blade to form an incision; a ratchet configured to rotate in a first direction and a second direction; a pawl configured to keep the ratchet from rotating in the second direction, after having been rotated in the first direction, until the surgical tool is fired; a linkage arm connecting the rocker assembly and the ratchet so that rotation of the ratchet causes rotation of the rocker assembly; and a spring configured to be extended by the ratchet when the ratchet is rotated in the first direction, the spring also configured to retract and cause the ratchet to rotate in the second direction when firing of the surgical tool is initiated; wherein the rocker assembly comprises a structure that engages the drive belt, whereby rotation of the ratchet causes the linkage arm to move back and forth, which causes the rocker assembly to rotate the drive belt in order to: rotate the surgical blade forward and backward a first time based on the rotation of the ratchet in the first direction; and rotate the surgical blade forward and backward a second time based on the rotation of the ratchet in the second direction. a surgical blade; a drive belt; a rocker assembly configured to cause rotation of the surgical blade to form an incision; a ratchet configured to rotate in a first direction and a second direction; a pawl configured to keep the ratchet from rotating in the second direction, after having been rotated in the first direction, until the surgical tool is fired; a linkage arm connecting the rocker assembly and the ratchet so that rotation of the ratchet causes rotation of the rocker assembly; and a spring configured to be extended by the ratchet when the ratchet is rotated in the first direction, the spring also configured to retract and cause the ratchet to rotate in the second direction when firing of the surgical tool is initiated; wherein the rocker assembly comprises a structure that engages the drive belt, whereby rotation of the ratchet causes the linkage arm to move back and forth, which causes the rocker assembly to rotate the drive belt in order to: rotate the surgical blade forward and backward a first time based on the rotation of the ratchet in the first direction; and rotate the surgical blade forward and backward a second time based on the rotation of the ratchet in the second direction. rotate the surgical blade forward and backward a first time based on the rotation of the ratchet in the first direction; and rotate the surgical blade forward and backward a second time based on the rotation of the ratchet in the second direction.
Method for managing data relating to an injection molding process contained in a memory of an electronic control unit placed onboard an injection press, the electronic control unit processing the data to perform the molding process, characterized by the step of communicating said data between the memory and the outside of the press by means of a graphic code readable by an electronic device.
An integration device for integrating function modules, used to communicate with an IoT device in the environment, comprising: a plurality of function modules, each function module respectively being capable of different function; a body, consisted of at least three faces, each face being formed thereon an assembling slot respectively, wherein a size and a shape of each assembling slot are corresponding to other size and other shape of each function module and each of the function modules is directly assembled on each of the assembling slots of the at least three faces of the body, wherein a denting part is formed at an edge of each assembling slot for each of the function modules to be easily removed from each assembling slot; and a control module, arranged in the body and comprising a wireless transmission unit and an MCU electrically connected with the wireless transmission unit, the control module having a plurality of first connection ports, one end of each first connection port is electrically connected with the MCU and other end of each first connection port is extended and exposed in each assembling slot; wherein each function module is respectively assembled on each assembling slot of each face of the body for communicating with the MCU in the body directly through each first connection port and is configured to communicate with the IoT device through the wireless transmission unit in the body. a plurality of function modules, each function module respectively being capable of different function; a body, consisted of at least three faces, each face being formed thereon an assembling slot respectively, wherein a size and a shape of each assembling slot are corresponding to other size and other shape of each function module and each of the function modules is directly assembled on each of the assembling slots of the at least three faces of the body, wherein a denting part is formed at an edge of each assembling slot for each of the function modules to be easily removed from each assembling slot; and a control module, arranged in the body and comprising a wireless transmission unit and an MCU electrically connected with the wireless transmission unit, the control module having a plurality of first connection ports, one end of each first connection port is electrically connected with the MCU and other end of each first connection port is extended and exposed in each assembling slot; wherein each function module is respectively assembled on each assembling slot of each face of the body for communicating with the MCU in the body directly through each first connection port and is configured to communicate with the IoT device through the wireless transmission unit in the body.
Low-voltage circuit breaker having at least one phase conductor section from a phase conductor supply terminal of the low-voltage circuit breaker to a phase conductor load terminal of the low-voltage circuit breaker and a neutral conductor section from a neutral conductor terminal of the low-voltage circuit breaker to a neutral conductor load terminal of the low-voltage circuit breaker, wherein a mechanical bypass switch is arranged within the phase conductor section, wherein a semi-conductor circuit arrangement of the low-voltage circuit breaker is connected in parallel with the bypass switch, wherein a first current measuring arrangement, in particular comprising a shunt, is arranged within the phase conductor section, which is connected to an electronic control unit of the circuit breaker, wherein the electronic control unit is configured to actuate the bypass switch and the semi-conductor circuit arrangement upon detection of a predeterminable over-current, in particular a short-circuit current, by means of the current measuring arrangement, wherein a snubber is arranged in parallel with the semi-conductor circuit arrangement in terms of circuitry, wherein a first mechanical disconnect switch is arranged within the phase conductor section, wherein a second mechanical disconnect switch is arranged within the neutral conductor section, characterised in that the snubber has a capacitor and a resistor arranged in parallel with the capacitor in terms of circuitry, the snubber is designed free of a diode and the electronic control unit is configured to first close the first mechanical disconnect switch and immediately thereafter the second mechanical disconnect switch when the low-voltage circuit breaker is switched on in the event of a voltage zero crossing.
Polypropylene composition comprising (a) heterophasic propylene copolymer (RAHECO) comprising a matrix being a random propylene copolymer (R-PP), an elastomeric propylene copolymer being dispersed in said matrix, and (b) a polyethylene, wherein further (i) said polypropylene composition and/or said heterophasic propylene copolymer (RAHECO) is/are α-nucleated, and (ii) said heterophasic propylene copolymer (RAHECO) has a melt flow rate measured according to ISO 1133 in the range of equal or more than 0.5 to equal or below 6.0 g/10min, and (iii) said heterophasic propylene copolymer (RAHECO) has a xylene cold soluble fraction determined at 25 °C according ISO 16152 of 20 to 35 wt.-%. (a) heterophasic propylene copolymer (RAHECO) comprising a matrix being a random propylene copolymer (R-PP), an elastomeric propylene copolymer being dispersed in said matrix, and a matrix being a random propylene copolymer (R-PP), an elastomeric propylene copolymer being dispersed in said matrix, (b) a polyethylene, wherein further (i) said polypropylene composition and/or said heterophasic propylene copolymer (RAHECO) is/are α-nucleated, and (ii) said heterophasic propylene copolymer (RAHECO) has a melt flow rate measured according to ISO 1133 in the range of equal or more than 0.5 to equal or below 6.0 g/10min, and (iii) said heterophasic propylene copolymer (RAHECO) has a xylene cold soluble fraction determined at 25 °C according ISO 16152 of 20 to 35 wt.-%. (i) said polypropylene composition and/or said heterophasic propylene copolymer (RAHECO) is/are α-nucleated, and (ii) said heterophasic propylene copolymer (RAHECO) has a melt flow rate measured according to ISO 1133 in the range of equal or more than 0.5 to equal or below 6.0 g/10min, and (iii) said heterophasic propylene copolymer (RAHECO) has a xylene cold soluble fraction determined at 25 °C according ISO 16152 of 20 to 35 wt.-%.
A method for transmitting a reference signal to a user equipment at a base station in a wireless communication system, comprising: transmitting the reference signal to the user equipment according to a first pattern corresponding to a first rank; and if a rank is changed from the first rank to a second rank, transmitting the reference signal to the user equipment according to a second pattern corresponding to the second rank, wherein, if the second rank is greater than the first rank, the second pattern includes the first pattern, said method characterized in that the number of reference signal resources in the time domain for each spatial layer in the second pattern is larger than the number of reference signal resources in the time domain for each spatial layer in the first pattern. transmitting the reference signal to the user equipment according to a first pattern corresponding to a first rank; and if a rank is changed from the first rank to a second rank, transmitting the reference signal to the user equipment according to a second pattern corresponding to the second rank, wherein, if the second rank is greater than the first rank, the second pattern includes the first pattern, said method characterized in that the number of reference signal resources in the time domain for each spatial layer in the second pattern is larger than the number of reference signal resources in the time domain for each spatial layer in the first pattern.
A method of performing handover in at least one wireless communication network of a terminal from a serving cell to another cell, characterised by the method comprising: the terminal making an assessment of EMF exposure of a user of the terminal; the terminal transmitting an indication related to the EMF exposure of the user; a said network receiving said indication; and a said network deciding to perform handover of the terminal by basing the handover decision on one or more criteria including said indication. the terminal making an assessment of EMF exposure of a user of the terminal; the terminal transmitting an indication related to the EMF exposure of the user; a said network receiving said indication; and a said network deciding to perform handover of the terminal by basing the handover decision on one or more criteria including said indication.
A special effects communication system (10A, 10B), comprising: a camera system (12A, 12B) configured to capture one or more images of a first user at a first location; communication circuitry configured to transmit a first dataset corresponding to the one or more images of the first user and to receive a second dataset from a destination device corresponding to one or more images of a second user at a second location; and a special effects system (30A, 30B) configured to: generate one or more control signals based on the second dataset to generate special effects and drive three-dimensional manipulation of a physical medium to present a likeness of the second user at the first location; characterised in that the special effects are generated at least in part using the physical medium and comprise a heat effect to be perceived by the first user and wherein the physical medium comprises smoke or fog where light is projected to present the likeness of the second user at the first location. a camera system (12A, 12B) configured to capture one or more images of a first user at a first location; communication circuitry configured to transmit a first dataset corresponding to the one or more images of the first user and to receive a second dataset from a destination device corresponding to one or more images of a second user at a second location; and a special effects system (30A, 30B) configured to: generate one or more control signals based on the second dataset to generate special effects and drive three-dimensional manipulation of a physical medium to present a likeness of the second user at the first location; characterised in that the special effects are generated at least in part using the physical medium and comprise a heat effect to be perceived by the first user and wherein the physical medium comprises smoke or fog where light is projected to present the likeness of the second user at the first location. generate one or more control signals based on the second dataset to generate special effects and drive three-dimensional manipulation of a physical medium to present a likeness of the second user at the first location; characterised in that the special effects are generated at least in part using the physical medium and comprise a heat effect to be perceived by the first user and wherein the physical medium comprises smoke or fog where light is projected to present the likeness of the second user at the first location.
A battery module constructed in a structure in which a cell stack, including a plurality of battery cells, which can be charged and discharged, or a plurality of unit modules, each of which includes a plurality of battery cells, stacked with high density, is mounted in a hexahedral module case, and the module case is provided at the top and bottom thereof with a sliding coupling structure, characterized in that the sliding coupling structure includes sliding grooves formed at the top of the module case in a longitudinal direction of the module case and corresponding sliding protrusions formed at the bottom of the module case in the longitudinal direction of the module case, the sliding grooves are formed at the right and left sides of the top of the module case, and the sliding protrusions are formed at the right and left sides of the bottom of the module case, a pivotable grip is mounted to the front side of the battery module, and one end of the pivotable grip is hingedly mounted to the front of the module case such that the other end of the pivotable grip is separable from the front of the module case by a pivoting rotation of the pivotable grip.
A compound of formula: wherein R 1 and R 2 are each independently selected from a methoxy group, a hydroxyl group, and an alkyl sulfonyl group; L is a carbonyl, alkylene, or alkenylene, or alkynl when Z is not present; Z is -H, -OH, a substituted styrenyl, an aromatic ring, a cycloalkyl, -COR 3, -CONR 3 R 4, or -CX 3, wherein R 3 and R 4 are each -H, -CH 3, -C n H 2n+1 wherein n = 2-4, a heterocyclic, a heteroaryl, or a cycloalkyl, or R 3 and R 4 together form a heterocyclic; or Z is COOR wherein R is -H, -CH 3, -C n H 2n+1, wherein n = 2-4, or a cycloalkyl, when Y is not H; and X is a -F, -Cl, or -Br; Y is a short alkyl C 1-3; wherein each R 1 or R 2 substituted phenyl of the compound is mono- or disubstituted by R 1 or R 2. R 1 and R 2 are each independently selected from a methoxy group, a hydroxyl group, and an alkyl sulfonyl group; L is a carbonyl, alkylene, or alkenylene, or alkynl when Z is not present; Z is -H, -OH, a substituted styrenyl, an aromatic ring, a cycloalkyl, -COR 3, -CONR 3 R 4, or -CX 3, wherein R 3 and R 4 are each -H, -CH 3, -C n H 2n+1 wherein n = 2-4, a heterocyclic, a heteroaryl, or a cycloalkyl, or R 3 and R 4 together form a heterocyclic; or Z is COOR wherein R is -H, -CH 3, -C n H 2n+1, wherein n = 2-4, or a cycloalkyl, when Y is not H; and X is a -F, -Cl, or -Br; Y is a short alkyl C 1-3; wherein each R 1 or R 2 substituted phenyl of the compound is mono- or disubstituted by R 1 or R 2.
A filter manufacturing machine comprising: a feed path configured to continuously feed a sheet material containing filter fibers; a first plasticizer addition unit arranged in the feed path and configured to add a first plasticizer to the sheet material on the feed path; a forming device connected to a terminating end of the feed path and configured to form the sheet material into a hollow rod-shaped continuous filter body and deliver the formed continuous filter body, the forming device including a tubular forming path allowing the sheet material to pass therethrough while narrowing the sheet material to form the sheet material into the continuous filter body, a heat treating section configured to heat the sheet material while the sheet material passes through the tubular forming path, and a second plasticizer addition unit arranged near an inlet of the tubular forming path and configured to spout a second plasticizer radially from an axis of the tubular forming path to add the second plasticizer to the sheet material; and a wrapping device configured to receive the continuous filter body delivered from the forming device, wrap the continuous filter body in a wrapper to form a filter rod, and cut the filter rod to obtain filter plugs. a feed path configured to continuously feed a sheet material containing filter fibers; a first plasticizer addition unit arranged in the feed path and configured to add a first plasticizer to the sheet material on the feed path; a forming device connected to a terminating end of the feed path and configured to form the sheet material into a hollow rod-shaped continuous filter body and deliver the formed continuous filter body, the forming device including a tubular forming path allowing the sheet material to pass therethrough while narrowing the sheet material to form the sheet material into the continuous filter body, a heat treating section configured to heat the sheet material while the sheet material passes through the tubular forming path, and a second plasticizer addition unit arranged near an inlet of the tubular forming path and configured to spout a second plasticizer radially from an axis of the tubular forming path to add the second plasticizer to the sheet material; and a wrapping device configured to receive the continuous filter body delivered from the forming device, wrap the continuous filter body in a wrapper to form a filter rod, and cut the filter rod to obtain filter plugs.