mhurhangee/ep-ind-claims huggingface dataset:
A process for a two stage melt polymerization for the production of high molecular weight polybenzimidazole which comprises the steps of: in a first stage, charging a reaction vessel with a plurality of reactants capable of producing a polybenzimidazole to create a reaction mass, said reaction vessel having a means for agitation and a means for controlling atmosphere; heating said reactants under agitation in a substantially oxygen-free atmosphere with agitation until the agitator torque is from 1.5 to 6 times the torque before a rise in viscosity begins; terminating the agitation while continuing to heat the reaction mixture to a temperature of from 230° to 350° C while allowing said reaction mass to foam; cooling said reaction mass to a friable foamed mass; pulverizing said friable foamed mass to obtain a pulverized prepolymer; reheating pulverized prepolymer to a temperature of from 230° to 350° C for a period of time between 15 minutes and 240 minutes then removing said pulverized prepolymer; pressure washing said reaction vessel and said means for agitation to obtain a resulting wash mixture; separating excess water from said resulting wash mixture to obtain a wet pulverized prepolymer; in a second stage, transferring said pulverized prepolymer and said wet pulverized prepolymer to said reaction vessel; heating said pulverized prepolymer and said wet pulverized prepolymer under agitation to between 315° to 400°C at atmospheric pressure for a time between 90 minutes and 400 minutes. in a first stage, charging a reaction vessel with a plurality of reactants capable of producing a polybenzimidazole to create a reaction mass, said reaction vessel having a means for agitation and a means for controlling atmosphere; heating said reactants under agitation in a substantially oxygen-free atmosphere with agitation until the agitator torque is from 1.5 to 6 times the torque before a rise in viscosity begins; terminating the agitation while continuing to heat the reaction mixture to a temperature of from 230° to 350° C while allowing said reaction mass to foam; cooling said reaction mass to a friable foamed mass; pulverizing said friable foamed mass to obtain a pulverized prepolymer; reheating pulverized prepolymer to a temperature of from 230° to 350° C for a period of time between 15 minutes and 240 minutes then removing said pulverized prepolymer; pressure washing said reaction vessel and said means for agitation to obtain a resulting wash mixture; separating excess water from said resulting wash mixture to obtain a wet pulverized prepolymer; in a second stage, transferring said pulverized prepolymer and said wet pulverized prepolymer to said reaction vessel; heating said pulverized prepolymer and said wet pulverized prepolymer under agitation to between 315° to 400°C at atmospheric pressure for a time between 90 minutes and 400 minutes.
A crystalline compound, which crystalline compound is a perovskite of formula: Cs 0.17 (H 2 N-C =NH 2) 0.83 Pb(Br y I (1-y)) 3, wherein y is from 0.01 to 0.99.
A switching device comprising: a first terminal and a second terminal; and a plurality of switching elements connected in series to form a stack between the first terminal and the second terminal having a non-uniform distribution of a physical parameter of each switching element of the stack, the stack being configured to provide a first voltage handling capacity greater than a second voltage handling capacity corresponding to a similar stack having a uniform distribution of the physical parameter of each switching element of the similar stack, the switching elements of the similar stack having a non-uniform distribution of an electrical parameter of each respective switching element, the non-uniform distribution of the physical parameter of each respective switching element of the stack tracking the non-uniform distribution of the electrical parameter of each respective switching element of the similar stack. a first terminal and a second terminal; and a plurality of switching elements connected in series to form a stack between the first terminal and the second terminal having a non-uniform distribution of a physical parameter of each switching element of the stack, the stack being configured to provide a first voltage handling capacity greater than a second voltage handling capacity corresponding to a similar stack having a uniform distribution of the physical parameter of each switching element of the similar stack, the switching elements of the similar stack having a non-uniform distribution of an electrical parameter of each respective switching element, the non-uniform distribution of the physical parameter of each respective switching element of the stack tracking the non-uniform distribution of the electrical parameter of each respective switching element of the similar stack.
An optical mirror element, comprising an optically transmissive lens element having - a first surface with a reflective coating forming a mirror surface; and - a diffuse reflector portion with uneven or granular features on a second surface opposite the first surface for diffusely reflecting light passing through the first surface, wherein the second surface comprises a polished portion within the diffuse reflector portion forming a non-diffuse window portion in the diffuse reflector portion, the mirror surface comprising an optically transparent window which is provided with an anti-reflective coating. - a first surface with a reflective coating forming a mirror surface; and - a diffuse reflector portion with uneven or granular features on a second surface opposite the first surface for diffusely reflecting light passing through the first surface, wherein the second surface comprises a polished portion within the diffuse reflector portion forming a non-diffuse window portion in the diffuse reflector portion, the mirror surface comprising an optically transparent window which is provided with an anti-reflective coating.
A method for producing a sheath of a plug part for an electrical and/or optical plug-in connection and/or of a cable, wherein the sheath is produced by means of injection moulding from a thermoplastic material in an injection mould, and in addition to the thermoplastic material at least one outgassing blowing agent is co-injected into the injection mould and gas inclusions are formed in the sheath, characterised in that the injection pressure is in a range between 5 bar and 40 bar and the injection temperature is in a range between 180°C and 240°C, and in that the outgassing blowing agent is a chemical blowing agent.
Trim element for a pillar of a body of a motor vehicle, in particular for an A-pillar, having a main body; an exterior of the main body, which exterior faces a vehicle interior when the trim element is installed on the pillar, an interior of the main body, which interior faces the body when the trim element is installed on the pillar, a textile element which covers the exterior and has a plurality of edge portions (26, 36) folded over onto the interior, and a bending portion which extends substantially in a longitudinal direction of the trim element and is formed in the main body; and a pivoting portion of the main body, which pivoting portion runs along the bending portion, wherein the pivoting portion is connected to the bending portion and is pivotable about the bending portion when force is applied, wherein the trim element is configured to receive an inflatable air bag in its uninflated state, characterised in that at least one edge portion of the textile element is arranged on the interior above the bending portion and is integrally connected to the interior at a plurality of joints (30-1, 30-2), wherein the joints (30-1, 30-2) are arranged along the bending portion. an exterior of the main body, which exterior faces a vehicle interior when the trim element is installed on the pillar, an interior of the main body, which interior faces the body when the trim element is installed on the pillar, a textile element which covers the exterior and has a plurality of edge portions (26, 36) folded over onto the interior, and a bending portion which extends substantially in a longitudinal direction of the trim element and is formed in the main body; and a pivoting portion of the main body, which pivoting portion runs along the bending portion, wherein the pivoting portion is connected to the bending portion and is pivotable about the bending portion when force is applied, wherein the trim element is configured to receive an inflatable air bag in its uninflated state, characterised in that at least one edge portion of the textile element is arranged on the interior above the bending portion and is integrally connected to the interior at a plurality of joints (30-1, 30-2), wherein the joints (30-1, 30-2) are arranged along the bending portion.
Gear reducer mechanism of an auger for surface-drilling rigs which makes the auger that is connected with said mechanism turn by motorised means that transmit the rotary movement to this auger, characterised in that the gear reducer mechanism is formed, at least, by: - an auger fixing hole, which in addition to the rotary motion transmitted from the motorised means, has relative longitudinal motion with respect to the element transmitting the rotation, without affecting the position of the rotary transmission element that does not move longitudinally; - an end-of-stroke piece of the maximum longitudinal displacement of the fixing hole, which is located in the parts of the mechanism that surrounds the fixing hole of the auger; - a stop located at the fixing hole of the auger that turns together with the auger fixing hole, which comes into contact with the end-of-stroke piece, when the maximum relative longitudinal displacement is reached between the fixing hole and the rest of the gear reducer mechanism that surrounds it; wherein, the gear reducer mechanism, that surrounds the auger fixed in the auger fixing hole, is able to move longitudinally in a relative manner to this auger fixing hole, wherein this longitudinal movement has a maximum displacement point that is the point of contact between the end-of-stroke piece and the stop piece of the auger fixing hole, and wherein the contact surface of the end-of-stroke piece and the stop piece (19,21) of the auger fixing hole have protuberances, teeth or similar, which at said maximum displacement point the contact surface rotates against the stop piece, this creates longitudinal displacements, by way of sudden jumps between these surfaces (20,21), wherein the auger fixing hole transmits to the auger itself a hammering movement against the ground to be drilled, during the turn. - an auger fixing hole, which in addition to the rotary motion transmitted from the motorised means, has relative longitudinal motion with respect to the element transmitting the rotation, without affecting the position of the rotary transmission element that does not move longitudinally; - an end-of-stroke piece of the maximum longitudinal displacement of the fixing hole, which is located in the parts of the mechanism that surrounds the fixing hole of the auger; - a stop located at the fixing hole of the auger that turns together with the auger fixing hole, which comes into contact with the end-of-stroke piece, when the maximum relative longitudinal displacement is reached between the fixing hole and the rest of the gear reducer mechanism that surrounds it;
A first wireless communication device comprising: a processor, a memory, and a wireless communication unit configured to establish a beamformed communication link with a second wireless communication device; wherein the wireless communication unit is configured to transmit a first field containing a first portion indicating a beamlink maintenance unit index, the first portion followed by a second portion indicating a beamlink maintenance value, the second portion followed by a third portion indicating which of the first and second wireless communication devices (102, 130) is to act as a master in a communication over the beamformed communication link; and wherein the wireless communication unit is further configured to determine a beamlink maintenance time period for the beamformed communication link based on a relationship between the third portion of the first field and a corresponding third portion of a second field received at the first wireless communication device from the second wireless communication device. a processor, a memory, and a wireless communication unit configured to establish a beamformed communication link with a second wireless communication device; wherein the wireless communication unit is configured to transmit a first field containing a first portion indicating a beamlink maintenance unit index, the first portion followed by a second portion indicating a beamlink maintenance value, the second portion followed by a third portion indicating which of the first and second wireless communication devices (102, 130) is to act as a master in a communication over the beamformed communication link; and wherein the wireless communication unit is further configured to determine a beamlink maintenance time period for the beamformed communication link based on a relationship between the third portion of the first field and a corresponding third portion of a second field received at the first wireless communication device from the second wireless communication device.
Pneumatic vehicle tyre with a radial carcass and two bead regions, wherein each bead region has a bead core and a bead filler resting on the bead core, wherein the carcass is led around the bead cores and the bead fillers from axially the inside to axially the outside and is led back to the carcass as a carcass turn-up and wherein in each bead region there is arranged a single bead reinforcer, which runs around in the circumferential direction, comprises a single ply and is reinforced with reinforcing elements, comprising an upper region and a lower region, which is closer to the respective bead core than the upper region, wherein the bead reinforcer ends in its upper region between the carcass and the carcass turn-up led back to the carcass in such a way, that the bead reinforcer both directly adjoins the carcass and directly adjoins the carcass turn-up and wherein the reinforcing elements of the bead reinforcer form with the circumferential direction an angle α, which lies in a range from 30° to 70°, characterized in that the bead reinforcer runs in its lower region on the inside axially of the respective bead filler and between the bead filler and the carcass.
A method of transmitting control information by a user equipment, the method comprising: receiving, by the user equipment, downlink allocation information via one control channel element, CCE, or plural CCEs, wherein a CCE is a resource unit used for transmitting control information; receiving, by the user equipment, downlink data in accordance with the downlink allocation information; and transmitting, by the user equipment, an Acknowledgement/Negative Acknowledgement, ACK/NACK, signal corresponding to the downlink data, wherein when the downlink allocation information is received via one CCE, a resource index for the ACK/NACK signal corresponds to the CCE index, wherein when the downlink allocation information is received via plural CCEs, a resource index for the ACK/NACK signal corresponds to the lowest one of CCE indexes of the plural CCEs. receiving, by the user equipment, downlink allocation information via one control channel element, CCE, or plural CCEs, wherein a CCE is a resource unit used for transmitting control information; receiving, by the user equipment, downlink data in accordance with the downlink allocation information; and transmitting, by the user equipment, an Acknowledgement/Negative Acknowledgement, ACK/NACK, signal corresponding to the downlink data,
An RFID cap (10,20,30,100) for a cryogenic vial, the RFID cap (10,20,30,100) comprising: a cap body (11,40,111); and an RFID tag attached to the cap body (11,40,111), the RFID tag comprising an RFID chip (13,113) and an antenna (14,114) connected to the chip (13,113) wherein the RFID tag includes a support medium which encapsulates the RFID chip (13,113) and antenna (14,114), characterised in that the support medium is an epoxy resin having a coefficient of expansion within the range of 95-105ppm/°Cbelow Tg. a cap body (11,40,111); and an RFID tag attached to the cap body (11,40,111), the RFID tag comprising an RFID chip (13,113) and an antenna (14,114) connected to the chip (13,113) wherein the RFID tag includes a support medium which encapsulates the RFID chip (13,113) and antenna (14,114), characterised in that the support medium is an epoxy resin having a coefficient of expansion within the range of 95-105ppm/°Cbelow Tg.
Installation kit for connecting pipes running in the road bed with the road surface, having a square bar surrounded by a protective pipe and a bushing for connecting to the pipe whereby the square bar ends with a square shaft in the surface box which is connected detachably with an attachment part that surrounds the square shaft, characterised in that the attachment part, which can fixed similar to a square cap on the square shaft, is enclosed by a protective body, which is designed as a rotation lock that prevents operation of the square bar, the attachment part being connectable by means of a thread with an end piece arranged torsion-proof around the square shaft and a clamping device is located between the attachment part and the end piece that clamps the square bar with the end piece when the attachment part is fixed in place.
A connector connectable with a conductive core of a cable which is inserted from a front of the connector along a front-rear direction, wherein: the connector comprises a shell and a spring member; the shell is made of a metal; the shell has a contact portion; the spring member has an operated portion and a press portion; the press portion presses the conductive core against the contact portion under a connection state where the conductive core is connected with the connector, characterized in that the spring member is made of another metal which is harder than the material of the conductive core; the shell has an operation portion; when the operation portion moves the operated portion, the press portion is moved away from the contact portion; the operation portion is movable in an operating direction which intersects with the front-rear direction; and the operation portion moves the operated portion when moved in the operating direction. the connector comprises a shell and a spring member; the shell is made of a metal; the shell has a contact portion; the spring member has an operated portion and a press portion; the press portion presses the conductive core against the contact portion under a connection state where the conductive core is connected with the connector, characterized in that the spring member is made of another metal which is harder than the material of the conductive core; the shell has an operation portion; when the operation portion moves the operated portion, the press portion is moved away from the contact portion; the operation portion is movable in an operating direction which intersects with the front-rear direction; and the operation portion moves the operated portion when moved in the operating direction.
A method at a user equipment, UE, the method comprising: determining, by use of a processor, a collision between UE uplink transmission resources in a first TTI of a first TTI length and uplink transmission resources in a second TTI of a second TTI length; transmitting a first uplink data transmission block, TB, in the first TTI; transmitting a second uplink data TB in the second TTI; in response to the determination of the collision: interrupting the transmission of the first uplink data TB before transmission of the second uplink data TB; receiving an indication indicating whether to resume transmission of the first uplink data TB after the transmission of the second uplink TB; determining to resume or not to resume the transmission of the first uplink TB based on the indication; and resuming the transmission of the first uplink TB in the first TTI after the transmission of the second uplink TB if the UE has determined to resume the transmission of the first uplink TB, wherein the first TTI length is larger than the second TTI length, the first and the second TTI overlap at least in one symbol, the first TTI starts earlier than the second TTI. determining, by use of a processor, a collision between UE uplink transmission resources in a first TTI of a first TTI length and uplink transmission resources in a second TTI of a second TTI length; transmitting a first uplink data transmission block, TB, in the first TTI; transmitting a second uplink data TB in the second TTI; in response to the determination of the collision: interrupting the transmission of the first uplink data TB before transmission of the second uplink data TB; receiving an indication indicating whether to resume transmission of the first uplink data TB after the transmission of the second uplink TB; determining to resume or not to resume the transmission of the first uplink TB based on the indication; and resuming the transmission of the first uplink TB in the first TTI after the transmission of the second uplink TB if the UE has determined to resume the transmission of the first uplink TB, wherein the first TTI length is larger than the second TTI length, the first and the second TTI overlap at least in one symbol, the first TTI starts earlier than the second TTI. interrupting the transmission of the first uplink data TB before transmission of the second uplink data TB; receiving an indication indicating whether to resume transmission of the first uplink data TB after the transmission of the second uplink TB; determining to resume or not to resume the transmission of the first uplink TB based on the indication; and resuming the transmission of the first uplink TB in the first TTI after the transmission of the second uplink TB if the UE has determined to resume the transmission of the first uplink TB, wherein the first TTI length is larger than the second TTI length, the first and the second TTI overlap at least in one symbol, the first TTI starts earlier than the second TTI.