mhurhangee/ep-ind-claims huggingface dataset:
A watch type mobile terminal comprising: a case comprising a mounting space and a first connecting hole connected to the mounting space; a printed circuit board mounted in the mounting space; a connector comprising one end inserted in the first connecting hole and another end formed in a circular cylinder shape arranged in a lateral direction, the connector further comprising a connecting passage penetrating from the one end of the connector to the other end of the connector; a strap comprising an inner space and a second connecting hole formed at one end of the strap and connected to the inner space; and a flexible circuit board extending from the mounting space of the case to the inner space of the strap via the connecting passage, with one end of the flexible circuit board connected to the printed circuit board, wherein the circular cylinder shaped other end of the connector and the second connecting hole form a hinge for rotatably coupling the other end of the connector and the one end of the strap, wherein an opening (b) of the second connecting hole is smaller than a diameter (a) of the circular cylinder shaped other end of the connector, and wherein a connected state between the second connecting hole and the connecting passage is maintained while the circular cylinder shaped other end of the connector and the strap are rotated. a case comprising a mounting space and a first connecting hole connected to the mounting space; a printed circuit board mounted in the mounting space; a connector comprising one end inserted in the first connecting hole and another end formed in a circular cylinder shape arranged in a lateral direction, the connector further comprising a connecting passage penetrating from the one end of the connector to the other end of the connector; a strap comprising an inner space and a second connecting hole formed at one end of the strap and connected to the inner space; and a flexible circuit board extending from the mounting space of the case to the inner space of the strap via the connecting passage, with one end of the flexible circuit board connected to the printed circuit board, wherein the circular cylinder shaped other end of the connector and the second connecting hole form a hinge for rotatably coupling the other end of the connector and the one end of the strap, wherein an opening (b) of the second connecting hole is smaller than a diameter (a) of the circular cylinder shaped other end of the connector, and wherein a connected state between the second connecting hole and the connecting passage is maintained while the circular cylinder shaped other end of the connector and the strap are rotated.
An ostomy appliance comprising: an outer wall having first and second opposed sidewalls (14, 16) joined at an outer periphery, an inlet opening and a filter, wherein the outer wall defines an interior volume comprising a collection area, wherein the collection area is a portion of the interior volume below the inlet opening, wherein the filter is disposed above the inlet opening, and a fastener on an external surface of the outer wall, wherein the fastener includes a first fastener part and a second fastener part spaced from the first fastener part, the fastener movable between a released state in which the ostomy appliance is in an unfolded state, and a fastened state in which the ostomy appliance is a folded state, wherein the ostomy appliance, in the folded state, further includes a crease positioned between the inlet opening and the filter, characterised in that a portion of the ostomy appliance above the crease is folded over onto a base portion of the ostomy appliance in the folded state such that the first fastener part and the second fastener part are engaged to hold the ostomy appliance in the folded state, wherein moving the ostomy appliance between the folded state and the unfolded state does not affect a capacity of the collection area. an outer wall having first and second opposed sidewalls (14, 16) joined at an outer periphery, an inlet opening and a filter, wherein the outer wall defines an interior volume comprising a collection area, wherein the collection area is a portion of the interior volume below the inlet opening, wherein the filter is disposed above the inlet opening, and a fastener on an external surface of the outer wall, wherein the fastener includes a first fastener part and a second fastener part spaced from the first fastener part, the fastener movable between a released state in which the ostomy appliance is in an unfolded state, and a fastened state in which the ostomy appliance is a folded state, wherein the ostomy appliance, in the folded state, further includes a crease positioned between the inlet opening and the filter, characterised in that a portion of the ostomy appliance above the crease is folded over onto a base portion of the ostomy appliance in the folded state such that the first fastener part and the second fastener part are engaged to hold the ostomy appliance in the folded state, wherein moving the ostomy appliance between the folded state and the unfolded state does not affect a capacity of the collection area.
An aqueous cationic polyurethane dispersion comprising an aqueous dispersion of a polyurethane having a polyurethane backbone with one or more tethered tertiary amino groups laterally attached to said polyurethane backbone, wherein said tertiary amino groups are optionally partially or fully neutralized or quaternized and wherein said tertiary amine groups are separated from said polyurethane backbone by at least two intervening atoms in their tethering group.
A hybrid system for a vehicle, the hybrid system comprising a hybrid machine and a transmission arrangement, wherein the transmission arrangement comprises a transmission housing, an input shaft, and an output shaft, the transmission arrangement further comprising a first, a second and a third planetary gear set each comprising a first, a second and a third planetary member, said planetary members being a sun gear, a planet carrier and a ring gear, the transmission arrangement further comprising five shift elements (138, 142, 144, 146, 150) engageable in combinations of two to obtain six forward gear stages, wherein the ring gear of the first planetary gear set and the planet carrier of the second planetary gear set are operatively connected to each other, the ring gear of the second planetary gear set and the planet carrier of the third planetary gear set are operatively connected to each other, two planetary members of the third planetary gear set are selectively connectable to each other by a single one of the shift elements, and wherein the hybrid machine and the ring gear of the first planetary gear set are connected to each other, the output shaft is operatively connected to the planet carrier of the first planetary gear set, the input shaft is connected to the sun gear of the third planetary gear set, the sun gear of the first planetary gear set and the sun gear of the second planetary gear set are operatively connected to each other, the sun gear of the first planetary gear set and the transmission housing are selectively connectable to each other, the sun gear of the second planetary gear set and the transmission housing are selectively connectable to each other, the planet carrier of the second planetary gear set and the ring gear of the third planetary gear set are selectively connectable to each other, the ring gear of the third planetary gear set and the transmission housing are selectively connectable to each other, and the sun gear of the third planetary gear set and the planet carrier of the second planetary gear set are selectively connectable to each other.
A telescoping assembly comprising: an outer rod (240, 340, 440, 540, 840) including a rear fastener (346") and an internal thread (329") proximate a leading end thereof; a mid rod including an external thread (328") fitting said internal thread of said outer rod (240, 340, 440, 540, 840), characterized by the mid rod including a rear flange (226', 326') slidable through a portion of the outer rod (240, 340, 440, 540, 840) and being wider than said internal thread of said outer rod (240, 340, 440, 540, 840) and an internal thread proximate a leading end thereof; and the telescoping assembly further comprising an inner rod (320, 420) including, an external thread fitting said internal thread of said mid rod a rear flange (226, 326) slidable through a portion of the mid rod and being wider than said internal thread of said mid rod; a first end cap (324, 424) including a matching fastener (348, 446) for fastening to said rear fastener (346") of the outer rod (340, 440); and a stopper for preventing dethreading of the telescoping assembly, said stopper including an interference element on said first end cap (324, 424) for preventing rotation in a contracting direction of said inner rod with respect to said first end cap (324, 424) an outer rod (240, 340, 440, 540, 840) including a rear fastener (346") and an internal thread (329") proximate a leading end thereof; a rear fastener (346") and an internal thread (329") proximate a leading end thereof; a mid rod including an external thread (328") fitting said internal thread of said outer rod (240, 340, 440, 540, 840), characterized by the mid rod including a rear flange (226', 326') slidable through a portion of the outer rod (240, 340, 440, 540, 840) and being wider than said internal thread of said outer rod (240, 340, 440, 540, 840) and an internal thread proximate a leading end thereof; and the telescoping assembly further comprising an inner rod (320, 420) including, an external thread fitting said internal thread of said mid rod a rear flange (226, 326) slidable through a portion of the mid rod and being wider than said internal thread of said mid rod; a first end cap (324, 424) including a matching fastener (348, 446) for fastening to said rear fastener (346") of the outer rod (340, 440); and a stopper for preventing dethreading of the telescoping assembly, said stopper including an interference element on said first end cap (324, 424) for preventing rotation in a contracting direction of said inner rod with respect to said first end cap (324, 424)
Pump light assembly for a disc laser, comprising: a focusing device, in particular a concave mirror, having a reflecting surface for focusing a pump light beam, which is collimated upon entry into the pump light assembly, onto a laser-active medium in the form of a laser disc which is arranged in a focus of the focusing device, and also a deflecting device for deflecting the pump light beam between reflecting regions (B1 to B12) formed on the reflecting surface and disposed in different angular regions about a central axis of the reflecting surface, wherein the deflecting device is configured to produce a deflection of the pump light beam between in each case two of the reflecting regions (B1 to B12) with an optical path length (2f + 2 d1; 2f + 2 d2) that is greater than the optical path length that corresponds to twice the focal length of the focusing device in the case of telecentric imaging, characterized in that the additional optical path length (2 d1; 2 d2), which is greater than the optical path length in the case of telecentric imaging, is at least one quarter of the focal length (f) of the focusing device in order to compensate for a beam expansion of the pump light beam, caused by aberrations of the focusing device, in successive focusings onto the laser-active medium. a focusing device, in particular a concave mirror, having a reflecting surface for focusing a pump light beam, which is collimated upon entry into the pump light assembly, onto a laser-active medium in the form of a laser disc which is arranged in a focus of the focusing device, and also a deflecting device for deflecting the pump light beam between reflecting regions (B1 to B12) formed on the reflecting surface and disposed in different angular regions about a central axis of the reflecting surface, wherein the deflecting device is configured to produce a deflection of the pump light beam between in each case two of the reflecting regions (B1 to B12) with an optical path length (2f + 2 d1; 2f + 2 d2) that is greater than the optical path length that corresponds to twice the focal length of the focusing device in the case of telecentric imaging, characterized in that the additional optical path length (2 d1; 2 d2), which is greater than the optical path length in the case of telecentric imaging, is at least one quarter of the focal length (f) of the focusing device in order to compensate for a beam expansion of the pump light beam, caused by aberrations of the focusing device, in successive focusings onto the laser-active medium.
Process for manufacturing products made of multi-gradient foamed polymeric material, comprising the following steps: i. generating, via software, a virtual model of a product to be manufactured in a solid foamable polymeric material; ii. assigning constraints and/or loads dictated by the use and performing a topological optimization via software of the virtual model in order to obtain an optimized virtual model with areas of differentiated relative density and/or differentiated morphology; iii. preparing said foamable polymeric material; iv. inserting said foamable polymeric material into a mold; v. solubilizing under pressure at least one foaming agent in the foamable polymeric material placed in the mold with a pressure profile of said at least one foaming agent variable over time and/or space as a function of the topological optimization; vi. releasing the pressure to produce a product made of foamed polymeric material provided with said areas of differentiated relative density and/or differentiated morphology; and vii. removing the product of foamed polymeric material from the mold. i. generating, via software, a virtual model of a product to be manufactured in a solid foamable polymeric material; ii. assigning constraints and/or loads dictated by the use and performing a topological optimization via software of the virtual model in order to obtain an optimized virtual model with areas of differentiated relative density and/or differentiated morphology; iii. preparing said foamable polymeric material; iv. inserting said foamable polymeric material into a mold; v. solubilizing under pressure at least one foaming agent in the foamable polymeric material placed in the mold with a pressure profile of said at least one foaming agent variable over time and/or space as a function of the topological optimization; vi. releasing the pressure to produce a product made of foamed polymeric material provided with said areas of differentiated relative density and/or differentiated morphology; and vii. removing the product of foamed polymeric material from the mold.
A filter assembly comprising: a primary filter; a secondary filter into which the primary filter is detachably inserted; a case detachably coupled to the primary filter and comprising a plurality of air inlet holes; and at least one blade being rotatably coupled to the secondary filter and configured to compress first foreign substances collected in the primary filter based on the primary filter moving in a first direction in which the primary filter is drawn out from the secondary filter; wherein the at least one blade is rotated from a first position to a second position as the primary filter moves in the first direction, and is rotated back to the first position from the second position as the primary filter moves in a second direction opposite to the first direction, the at least one blade not being in contact with an inner side of the primary filter at the first position and being in contact with the inner side of the primary filter at the second position.
A heat transfer device comprising: a thermally conductive pipe; and a heat transfer element slidably coupled to said thermally conductive pipe, said thermally conductive pipe and said heat transfer element collaboratively defining a length of said heat transfer device, wherein said heat transfer element is movable between a first position at which the length of said heat transfer device is a minimum and a second position at which the length of said heat transfer device is a maximum; wherein a cavity for containing a working fluid is at least partially defined by said thermally conductive pipe; wherein said heat transfer element is configured to move between the first position and the second position as a function of a temperature of said thermally conductive pipe and/or as a result of a variable pressure within the cavity defined by said thermally conductive pipe, and wherein the heat transfer element is slidably coupled to said thermally conductive pipe such that a heat convecting capability of said heat transfer device varies as a function of the length of said heat transfer device. a thermally conductive pipe; and a heat transfer element slidably coupled to said thermally conductive pipe, said thermally conductive pipe and said heat transfer element collaboratively defining a length of said heat transfer device, wherein said heat transfer element is movable between a first position at which the length of said heat transfer device is a minimum and a second position at which the length of said heat transfer device is a maximum; wherein a cavity for containing a working fluid is at least partially defined by said thermally conductive pipe; wherein said heat transfer element is configured to move between the first position and the second position as a function of a temperature of said thermally conductive pipe and/or as a result of a variable pressure within the cavity defined by said thermally conductive pipe, and wherein the heat transfer element is slidably coupled to said thermally conductive pipe such that a heat convecting capability of said heat transfer device varies as a function of the length of said heat transfer device.
A radio remote unit, comprising a unit body, and multiple heat dissipation fins that are disposed on a surface of the body, wherein an opening groove is disposed on the heat dissipation fin, and opening grooves on the multiple heat dissipation fins form a fan ventilation groove, wherein the fan ventilation groove is connected to ventilation channels between the heat dissipation fins; and wherein a fan is disposed in a built-in manner in the fan ventilation groove and the fan is disposed on the surface of the unit body, characterized in that a hollow fan ventilation duct is disposed at the fan ventilation groove, a height of the fan ventilation duct is less than a height of the heat dissipation fins, and air outlets are disposed on an exterior wall that is along a height direction of the fan ventilation duct, and are connected to the ventilation channels between the heat dissipation fins.
A system for scheduling the execution of tasks, the system comprising: at least one processing unit configured to execute a plurality of tasks (P, τ), the system further characterized in that: each task in the plurality of tasks is scheduled to execute within a scheduler instance in a plurality of scheduler instances (210 to 217, 231 to 236), each scheduler instance in the plurality of scheduler instances being associated with a set of time windows in a plurality of time windows (221 to 228, 302, 312) and with a set of processing units in the at least one processing unit in each time window, one or more time windows in the plurality of time windows having a start time (306, 316) and an allotted duration and the scheduler instance associated with the one or more time windows begins executing one or more tasks no earlier than the start time and executes for no longer than the allotted duration, and wherein the start time of the one or more time windows is slidable to earlier moments in time. each task in the plurality of tasks is scheduled to execute within a scheduler instance in a plurality of scheduler instances (210 to 217, 231 to 236), each scheduler instance in the plurality of scheduler instances being associated with a set of time windows in a plurality of time windows (221 to 228, 302, 312) and with a set of processing units in the at least one processing unit in each time window, one or more time windows in the plurality of time windows having a start time (306, 316) and an allotted duration and the scheduler instance associated with the one or more time windows begins executing one or more tasks no earlier than the start time and executes for no longer than the allotted duration, and wherein the start time of the one or more time windows is slidable to earlier moments in time.
An apparatus comprising: at least one memory comprising computer program code; at least one processor; wherein the at least one memory and the computer program code are configured, with the at least one processor, to cause the apparatus at least to: shift a frequency of a downlink 3GPP technology channel by a pre-determined amount, wherein the shift causes a duplex distance between the downlink 3GPP technology channel and an uplink 3GPP technology channel to change; blank at least one overlapping radio resource in at least one of the uplink 3GPP technology channel or a uplink narrowband internet of things channel, wherein the uplink narrowband internet of things channel and the uplink 3GPP technology channel at least partially overlap; and receive data on the uplink narrowband internet of things channel and an additional uplink narrowband internet of things channel at a network entity from a user equipment. at least one memory comprising computer program code; at least one processor; wherein the at least one memory and the computer program code are configured, with the at least one processor, to cause the apparatus at least to: shift a frequency of a downlink 3GPP technology channel by a pre-determined amount, wherein the shift causes a duplex distance between the downlink 3GPP technology channel and an uplink 3GPP technology channel to change; blank at least one overlapping radio resource in at least one of the uplink 3GPP technology channel or a uplink narrowband internet of things channel, wherein the uplink narrowband internet of things channel and the uplink 3GPP technology channel at least partially overlap; and receive data on the uplink narrowband internet of things channel and an additional uplink narrowband internet of things channel at a network entity from a user equipment. shift a frequency of a downlink 3GPP technology channel by a pre-determined amount, wherein the shift causes a duplex distance between the downlink 3GPP technology channel and an uplink 3GPP technology channel to change; blank at least one overlapping radio resource in at least one of the uplink 3GPP technology channel or a uplink narrowband internet of things channel, wherein the uplink narrowband internet of things channel and the uplink 3GPP technology channel at least partially overlap; and receive data on the uplink narrowband internet of things channel and an additional uplink narrowband internet of things channel at a network entity from a user equipment.
Method of producing heavy plates from a steel alloy, which are primarily shaped and reshaped to heavy plate size, as endless flat material directly from the casting heat of a continuous casting plant, comprising continuous casting of a steel melt and primary shaping of an obtained cast strip to form a slab with subsequent reshaping or hot-rolling of the slab from the casting heat in a plurality of reshaping steps to a desired heavy plate size and a directly succeeding thermal treatment, which causes selective cooling of the obtained heavy plate, of the heavy plate, wherein the heavy plate is cut to a desired individual plate length before or after the thermal treatment thereof in production direction, wherein the heat treatment is carried out in a temperature range of 150° C to 1,100° C as a combination of a selective cooling of the obtained heavy plate from the rolling heat to a desired first temperature with a directly succeeding selective heating of the heavy plate to a desired second temperature and a directly succeeding cooling of the heavy plate to a desired third temperature.