mhurhangee/ep-ind-claims huggingface dataset:
A method of a user equipment, UE, in a wireless communication system, the method comprising: receiving, from a base station, BS, a master information block, MIB, (1810; 1815) including information indicating a number of times of repetitive transmission of a first system information block, SIB,; receiving, from the BS, the first SIB based on the information indicating the number of times of repetitive transmission, the first SIB including scheduling information of a second SIB and information indicating an extended system frame number, SFN, for a machine type communication UE; receiving, from the BS, the second SIB based on the scheduling information, the first SIB and the second SIB being used for a machine type communication UE, the second SIB including information indicating a number of times of repetitive transmission of a preamble associated with a random access for the machine type communication UE, information on a physical random access channel, PRACH, resource associated with the random access for the machine type communication UE, and information on at least one RSRP threshold associated with a PRACH repetition level for the machine type communication UE, measuring a reference signal received power, RSRP; determining the PRACH repetition level for the repetitive transmission of the preamble based on a comparison result of the RSRP with the at least one RSRP threshold; and transmitting, to the BS, the preamble based on the information indicating the number of times of the repetitive transmission of the preamble corresponding to the determined repetition level. receiving, from a base station, BS, a master information block, MIB, (1810; 1815) including information indicating a number of times of repetitive transmission of a first system information block, SIB,; receiving, from the BS, the first SIB based on the information indicating the number of times of repetitive transmission, the first SIB including scheduling information of a second SIB and information indicating an extended system frame number, SFN, for a machine type communication UE; receiving, from the BS, the second SIB based on the scheduling information, the first SIB and the second SIB being used for a machine type communication UE, the second SIB including information indicating a number of times of repetitive transmission of a preamble associated with a random access for the machine type communication UE, information on a physical random access channel, PRACH, resource associated with the random access for the machine type communication UE, and information on at least one RSRP threshold associated with a PRACH repetition level for the machine type communication UE, measuring a reference signal received power, RSRP; determining the PRACH repetition level for the repetitive transmission of the preamble based on a comparison result of the RSRP with the at least one RSRP threshold; and transmitting, to the BS, the preamble based on the information indicating the number of times of the repetitive transmission of the preamble corresponding to the determined repetition level.
A method comprising: periodically waking up a wireless local area network, WLAN, client (101; 102) at a first interval to detect beacon signals (B1-B28) transmitted on a wireless link; determining that the WLAN client (101; 102) has not detected a beacon signal (B1-B28) on the wireless link while periodically waking up at the first interval, and in response, waking up the WLAN client (101; 102) at a second interval, smaller than the first interval, to detect beacon signals (B1-B28) transmitted on the wireless link; and determining that the WLAN client (101; 102) has detected a beacon signal (B1-B28) on the wireless link while waking up at the second interval, and in response, periodically waking up the WLAN client (101; 102) at the first interval to detect beacon signals (Bi-B28) transmitted on the wireless link. periodically waking up a wireless local area network, WLAN, client (101; 102) at a first interval to detect beacon signals (B1-B28) transmitted on a wireless link; determining that the WLAN client (101; 102) has not detected a beacon signal (B1-B28) on the wireless link while periodically waking up at the first interval, and in response, waking up the WLAN client (101; 102) at a second interval, smaller than the first interval, to detect beacon signals (B1-B28) transmitted on the wireless link; and determining that the WLAN client (101; 102) has detected a beacon signal (B1-B28) on the wireless link while waking up at the second interval, and in response, periodically waking up the WLAN client (101; 102) at the first interval to detect beacon signals (Bi-B28) transmitted on the wireless link.
A rod end assembly comprising: a rod end comprising a hollow shaft and a rod eye mounted to an end of the shaft, the shaft end having an opening extending through a wall thereof; characterised by further comprising: a cover mounted to the rod end, the cover comprising a mounting collar mounted to a mounting portion of the rod end, the collar being deformable such that it may be mounted to the rod end over the rod eye, wherein the cover further comprises a shield extending from the mounting collar and shielding the opening in the shaft wall to prevent fluid or foreign object ingress to the rod end. a rod end comprising a hollow shaft and a rod eye mounted to an end of the shaft, the shaft end having an opening extending through a wall thereof; characterised by further comprising: a cover mounted to the rod end, the cover comprising a mounting collar mounted to a mounting portion of the rod end, the collar being deformable such that it may be mounted to the rod end over the rod eye, wherein the cover further comprises a shield extending from the mounting collar and shielding the opening in the shaft wall to prevent fluid or foreign object ingress to the rod end.
A hydraulic drive system for motor vehicles, including a motor driving a hydraulic pump for recharging pressure accumulators (22, 26), and at least one hydraulic traction motor (40, 60) driving drive wheels (30, 50) of the vehicle, which is controlled by a HP hydraulic power unit (8, 58) connected to said pressure accumulators, including a subassembly comprising a high pressure accumulator disposed beneath the floor of the vehicle, longitudinally in the axis of this vehicle, and a low pressure accumulator rigidly fixed at the end of this high pressure accumulator, and being disposed transversely with respect to the high pressure accumulator, and characterized in that the pressure accumulators (22, 26), the HP hydraulic power units (8, 58) and the hydraulic traction motors (40, 60) are connected directly to one another in order to form a rigid subassembly comprising a general "T" shape.
A universal adapter for connecting templates (10; 10A; 10B) of different tensioning systems with the same tensioning frame with a strip-like adapter body with an essentially rectangular cross section, comprising a recess at its lower side for receiving the tensioning system of the tensioning frame while its upper side comprises further recess, characterized in that the universal adapter further comprises a clamping part (12; 12A; 12B) and at least one integrated clamping element (14; 14A) and in that the further recess is provided for receiving different integrated clamping elements (14; 14A) and in that the adapter body comprises at its side facing away from the template, a recess for receiving an edge of the clamping part (12; 12A; 12B), wherein the clamping part (12; 12A; 12B) is adapted as an elongated bar with a flat rectangular cross section and is provided at its lower side with projections (16; 16A; 16B), and in that, depending on the template to be received, the clamping part (12; 12A; 12B) comprises projections (16; 16A; 16B) in the form of round or quadrangular pins (16; 16A) with different diameters or in the form of elongated rectangular strips.
A method performed by a user terminal of a long-term evolution-advanced network comprising: receiving, by the user terminal, an indication of an uplink transmission scheme to be used for transmission on a physical uplink shared channel, PUSCH, characterized in that the indication indicates either a single-antenna transmission scheme or a multi-antenna transmission scheme; determining PUSCH resources of the user terminal; allocating at least one control message field to the resources of the PUSCH according to the uplink transmission scheme; and on a condition that the uplink transmission scheme is the multi-antenna transmission scheme, transmitting one or more of the at least one control message field by using a first multi-antenna transmission scheme and concurrently transmitting at least one data traffic field by using a second multi-antenna transmission scheme, wherein the first multi-antenna transmission scheme is transmit diversity multi-antenna transmission and wherein the second multi-antenna transmission scheme is multi-stream spatial multiplexing. receiving, by the user terminal, an indication of an uplink transmission scheme to be used for transmission on a physical uplink shared channel, PUSCH, characterized in that the indication indicates either a single-antenna transmission scheme or a multi-antenna transmission scheme; determining PUSCH resources of the user terminal; allocating at least one control message field to the resources of the PUSCH according to the uplink transmission scheme; and on a condition that the uplink transmission scheme is the multi-antenna transmission scheme, transmitting one or more of the at least one control message field by using a first multi-antenna transmission scheme and concurrently transmitting at least one data traffic field by using a second multi-antenna transmission scheme, wherein the first multi-antenna transmission scheme is transmit diversity multi-antenna transmission and wherein the second multi-antenna transmission scheme is multi-stream spatial multiplexing.
A rubber composition, comprising a conjugated diene polymer and silica, the conjugated diene polymer being obtained by polymerizing a monomer component including a conjugated diene compound and a silicon-containing vinyl compound in the presence of a polymerization initiator represented by the following formula: wherein i represents 0 or 1; R 11 represents a C 1-100 hydrocarbylene group; R 12 and R 13 each represent an optionally substituted hydrocarbyl group or a trihydrocarbylsilyl group, or R 12 and R 13 are bonded to each other to form a hydrocarbylene group optionally containing at least one, as a hetero atom, selected from the group consisting of a silicon atom, a nitrogen atom, and an oxygen atom; and M represents an alkali metal atom, to produce a copolymer, and then reacting a compound containing at least one of a nitrogen atom and a silicon atom with an active terminal of the copolymer, wherein the rubber composition comprises the conjugated diene polymer in an amount of not less than 10% by mass based on 100% by mass of a rubber component of the rubber composition, and the silica in an amount of 10 to 70 parts by mass for each 100 parts by mass of the rubber component.
Residual water evacuation network, comprising - a bypass valve (2, 8) equipped with at least one input mouth and two output mouths (22, 23), - a plurality of sanitary apparatus which may optionally be used with hot water, each sanitary apparatus having a drain for sewage, - the drains of said sanitary apparatus being connected to the input mouth or the input mouths, - a heat recovery installation, - a channel (4, 9) connecting the heat recovery installation with one of the output mouths (22, 23) of the bypass valve (2, 8), - a main drain to collect the sewage, - a channel connecting the main drain with the other output mouth (22, 23) of the bypass valve (2, 8), - wherein the bypass valve (2, 8) closes and opens the output mouths (22, 23) depending on the temperature of the water passing through said input mouths such that the sewage is directed either to the heat recovery installation or to the main drain, characterized in that the bypass valve (2, 8) comprises a cylindrical shell (19, 19') having an axis and the at least one input mouth and the two output mouths (22, 23) on its cylindrical wall, the cylindrical shell (19, 19') further houses a curved gate, which has the form of a segment of a circle smaller in radius to the cylindrical shell (19, 19'), this curved gate being fitted against the internal surface of the cylindrical shell (19, 19') and mounted to a rotation shaft coinciding with the axis of the cylindrical shell (19, 19'), upon which it can rotate between alternate closing and opening positions of one or the other output mouths (22, 23), said curved gate being linkable to an operating means, wherein the bypass valve (2, 8) is combined with a siphon trap comprising an input chamber and an output chamber, which chambers (33, 34) are divided by a partition arranged in the cylindrical shell (19, 19'), wherein the at least one input mouth is on the part of the cylindrical shell (19, 19") closing the input chamber, and the output mouths (22, 23) are on the part of the cylindrical shell (19, 19') closing the output chamber, the curved gate being mounted within the output chamber. - a bypass valve (2, 8) equipped with at least one input mouth and two output mouths (22, 23), - a plurality of sanitary apparatus which may optionally be used with hot water, each sanitary apparatus having a drain for sewage, - the drains of said sanitary apparatus being connected to the input mouth or the input mouths, - a heat recovery installation, - a channel (4, 9) connecting the heat recovery installation with one of the output mouths (22, 23) of the bypass valve (2, 8), - a main drain to collect the sewage, - a channel connecting the main drain with the other output mouth (22, 23) of the bypass valve (2, 8), - wherein the bypass valve (2, 8) closes and opens the output mouths (22, 23) depending on the temperature of the water passing through said input mouths such that the sewage is directed either to the heat recovery installation or to the main drain,
Method of manufacturing an out of plane axis accelerometer having • a base substrate and • a Silicon on insulator wafer; comprising the steps of I. forming a buried oxide layer on the SOI wafer; II. forming a recess region providing a gap for a bottom electrode on the base substrate, III. forming a protection layer on the base substrate; IV. forming the bottom electrode inside the formed recess region, V. forming eutectic bonding metal lines, a metal inter connection line and electrical connection pads on the base substrate; VI. forming a recess on a handle layer of the SOI wafer; VII. forming a top electrode on the handle layer of the SOI wafer; VIII. forming a top electrode metal connection line inside the recess on the handle layer of the SOI wafer; IX. forming a proof mass on the structural layer of the SOI wafer, comprising perforation holes (31, 32) and being located between the top and the bottom electrodes, for detecting the acceleration in the out of plane axis accelerometer, the proof mass becomes suspended after selectively etching the buried oxide layer of the SOI wafer; X. eutectic bonding of the SOI wafer to the base substrate; XI. releasing and suspending the proof mass by selectively etching the buried oxide layer of the SOI wafer through the perforation holes (31, 32) defined on the proof mass of the out of plane accelerometer. • a base substrate and • a Silicon on insulator wafer; I. forming a buried oxide layer on the SOI wafer; II. forming a recess region providing a gap for a bottom electrode on the base substrate, III. forming a protection layer on the base substrate; IV. forming the bottom electrode inside the formed recess region, V. forming eutectic bonding metal lines, a metal inter connection line and electrical connection pads on the base substrate; VI. forming a recess on a handle layer of the SOI wafer; VII. forming a top electrode on the handle layer of the SOI wafer; VIII. forming a top electrode metal connection line inside the recess on the handle layer of the SOI wafer; IX. forming a proof mass on the structural layer of the SOI wafer, comprising perforation holes (31, 32) and being located between the top and the bottom electrodes, for detecting the acceleration in the out of plane axis accelerometer, the proof mass becomes suspended after selectively etching the buried oxide layer of the SOI wafer; X. eutectic bonding of the SOI wafer to the base substrate; XI. releasing and suspending the proof mass by selectively etching the buried oxide layer of the SOI wafer through the perforation holes (31, 32) defined on the proof mass of the out of plane accelerometer.
A method for filling a container with bulk goods, in which method - the end or side wall of the container or at least part of it is opened, wherein the container is provided with a loading opening for loading bulk goods, - a device is provided in front of the loading opening of the container, comprising a load bin that can be moved through the loading opening into and out of the container and that can be opened at least at the location of the loading opening, as well as a load barrier that can be fitted in and moved in relation to the load bin, - the bulk goods are loaded in the load bin, on the side of the container with respect to the load barrier, - the load bin is moved through the loading opening at least partly to the inside of the container in such a way that the load barrier is transferred with the load bin at least primarily to the location of the loading opening, - the load bin is moved through the loading opening out of the container so that the bulk goods are simultaneously held inside the container by the load barrier, wherein the load bin moves back outside the container but the bulk goods remain in the container, characterized in that - the load barrier is tilted backwards before or during the step of loading the load bin, - the load barrier is tilted forward during or after transferring the load bin at least partly into the container. - the end or side wall of the container or at least part of it is opened, wherein the container is provided with a loading opening for loading bulk goods, - a device is provided in front of the loading opening of the container, comprising a load bin that can be moved through the loading opening into and out of the container and that can be opened at least at the location of the loading opening, as well as a load barrier that can be fitted in and moved in relation to the load bin, - the bulk goods are loaded in the load bin, on the side of the container with respect to the load barrier, - the load bin is moved through the loading opening at least partly to the inside of the container in such a way that the load barrier is transferred with the load bin at least primarily to the location of the loading opening, - the load bin is moved through the loading opening out of the container so that the bulk goods are simultaneously held inside the container by the load barrier, wherein the load bin moves back outside the container but the bulk goods remain in the container, - the load barrier is tilted backwards before or during the step of loading the load bin, - the load barrier is tilted forward during or after transferring the load bin at least partly into the container.
An electrical connector comprising: a holding device having a recess and at least one conductive pad disposed in the recess; and a socket including at least one conductive pin configured to engage at least one of the conductive pads when the socket is inserted into the holding device, and a port configured to receive an interface of an external device; wherein the shape of the socket is complementary to the shape of the recess; and the holding device having a first retaining element (4, 5; 4a, 5a) and the socket having a second retaining element (4, 5; 4a, 5a) that are together configured to releaseably maintain interconnection between the holding device and the socket; characterised in that the first retaining element (4, 5; 4a, 5a) and the second retaining element (4, 5; 4a, 5a) are configured to release the socket from the holding device when a separating force is applied to the socket from any axis, so that the separating force required to remove the socket from the holding device is insufficient to cause damage to the port, wherein either the first retaining element is a recessed ring (4; 4a) in a perimeter of the holding device, and the second retaining element is a complementary raised ring (5; 5a; 5b), preferably a separate split ring, in a perimeter of the socket; or the first retaining element is a raised ring in the perimeter of the holding device, and the second retaining element is a recessed ring in a perimeter of the socket. a holding device having a recess and at least one conductive pad disposed in the recess; and a socket including at least one conductive pin configured to engage at least one of the conductive pads when the socket is inserted into the holding device, and a port configured to receive an interface of an external device; at least one conductive pin configured to engage at least one of the conductive pads when the socket is inserted into the holding device, and a port configured to receive an interface of an external device; wherein the shape of the socket is complementary to the shape of the recess; and the holding device having a first retaining element (4, 5; 4a, 5a) and the socket having a second retaining element (4, 5; 4a, 5a) that are together configured to releaseably maintain interconnection between the holding device and the socket; characterised in that the first retaining element (4, 5; 4a, 5a) and the second retaining element (4, 5; 4a, 5a) are configured to release the socket from the holding device when a separating force is applied to the socket from any axis, so that the separating force required to remove the socket from the holding device is insufficient to cause damage to the port, wherein either the first retaining element is a recessed ring (4; 4a) in a perimeter of the holding device, and the second retaining element is a complementary raised ring (5; 5a; 5b), preferably a separate split ring, in a perimeter of the socket; or the first retaining element is a raised ring in the perimeter of the holding device, and the second retaining element is a recessed ring in a perimeter of the socket.