mhurhangee/patent-ind-claim-en huggingface dataset:
Drive train of a vehicle, in particular of a motor vehicle, the drive train comprising an oil container for cooling and/or lubricating bearings , a drive shaft , a transmission having a first gear , a second gear and a third gear , a differential , at least one wheel drive shaft and a housing , the differential comprising an axle drive gear and the axle drive gear being in engagement with a first gear of the transmission , at least one oil sump region being arranged in the lower region of the housing , the axle drive gear and/or the second gear of the transmission being arranged so as to splash at least partially in the oil sump region , the gears of the transmission and the axle drive gear forming at least two gear stages (I, II), and two gears of the transmission being arranged on an intermediate shaft , and the at least one wheel drive shaft being arranged coaxially to the drive shaft , and the intermediate shaft of the transmission being arranged on the side of the drive shaft opposite the oil sump region and/or on the at least one wheel drive shaft , characterized in that the oil container is functionally arranged such that the oil container is arranged in the region between the two gear stages (I, II) and on the side of the drive shaft opposite the oil sump region and/or on the at least one wheel drive shaft , and the longitudinal axis (A) of the oil container extending in parallel with the respective planes determined by the respective diameters of the first gear of the transmission and the axle drive gear on the one hand, and the second and third gear on the other hand.
A method, implemented on a machine having at least one processor, storage, and a communication platform capable of connecting to a network for operating a vehicle, the method comprising: receiving real-time data related to the vehicle; determining a current mode of operation of the vehicle; evaluating a first risk associated with the current mode of operation of the vehicle based on the real-time data in accordance with a risk model; determining , in response to the first risk satisfying a first criterion, a second risk associated with switching the current mode to a different mode of operation of the vehicle, the first criterion being that the first risk exceeds a first level, indicating that the current mode of operation of the vehicle is unsafe, but does not exceed a second level that is greater than the first level and that indicates that a driver of the vehicle is not having a life-threatening event; switching , in response to the second risk satisfying a second criterion, the vehicle from the current mode to the different mode; and executing , in response to the first risk exceeding the second level, an exception handling process. receiving real-time data related to the vehicle; determining a current mode of operation of the vehicle; evaluating a first risk associated with the current mode of operation of the vehicle based on the real-time data in accordance with a risk model; determining , in response to the first risk satisfying a first criterion, a second risk associated with switching the current mode to a different mode of operation of the vehicle, the first criterion being that the first risk exceeds a first level, indicating that the current mode of operation of the vehicle is unsafe, but does not exceed a second level that is greater than the first level and that indicates that a driver of the vehicle is not having a life-threatening event; switching , in response to the second risk satisfying a second criterion, the vehicle from the current mode to the different mode; and executing , in response to the first risk exceeding the second level, an exception handling process.
A sleeper transport vehicle having a loading area which includes a lower supporting loading plane and an upper supporting loading plane , wherein in each loading plane a guide is arranged in which pallets are guided in the longitudinal direction of the sleeper transport vehicle , wherein, at a front side, a transfer area is arranged into which the guides protrude in order to pass along during a working operation pallets with new sleepers in one loading plane to a further sleeper transport vehicle or loading/unloading vehicle arranged at the front side, and to receive pallets with old sleepers in the other loading plane , characterized in that in each loading plane a pushing device for pushing the pallets along the guide is designed as at least one circulating chain protruding into the transfer area, and that coupling elements are arranged on the pallets for temporary coupling to the chain.
A multi-layer polyolefin porous membrane comprising at least two layers; protrusions made of polyolefin satisfying 5 μm ≤ W ≤ 50 μm (where W is a protrusion size) and 0.5 μm ≤ H (where H is a protrusion height) and being randomly disposed on one side of the multi-layer polyolefin porous membrane at a density of not less than 3 protrusions/cm 2 and not greater than 200 protrusions/cm 2 ; a meltdown temperature being not lower than 165°C; an air permeation resistance being not greater than 300 sec/100 cc Air; and a membrane thickness being not greater than 20 μm; and wherein at least one layer contains a polypropylene having an amount of heat of fusion of not less than 90 J/g.
Device for producing containers from thermally conditioned preforms of thermoplastic material, the device having at least one mould for shaping the container from a preform, and at least one stretching rod which can be introduced into the mould for stretching a preform inserted into the mould , the stretching rod having a fluid line at least at an end section which can be introduced into the preform, which can be connected to a flushing gas reservoir in a fluid-communicating manner, characterised in that the stretching rod has an injector valve controlling the fluid line for generating flushing gas pulses, the injector valve being arranged on the end section , the injector valve being switchable and connected to a control device via at least one signal connection .
A closing device for jewelry, goldsmith, silverware and costume jewelry, comprising: - a female-like box-shaped body connected to a first end of an article of jewelry, goldsmith, silverware and costume jewelry by first hooking means , having engagement means with a male element connected, in turn, to a second end of said article of jewelry, goldsmith, silverware and costume jewelry by means of second coupling means ; - said engagement means being arranged to mutually couple said male element with said box-shaped body , said male element is arranged to be at least partially inserted inside a tubular element defined in said box-shaped body , in such a way as to allow mutual rotation of said box-shaped body and of said male element around the developing direction of said box-shaped body between a closed position and an opening position of the closing device ; - elastic means for pushing said male element in the developing direction , in order to disengage it from said box-shaped body ; - a plunger positioned internally of said box-shaped body and having a stroke thickness interposed between said male element and said elastic means , in such a way that, in the closed position, said male element exerts a pressure higher than the thrust of said elastic means , characterized in that said plunger also comprising a stop element in opening position; and said tubular element comprises, on its bottom, a passage hole for said plunger . - a female-like box-shaped body connected to a first end of an article of jewelry, goldsmith, silverware and costume jewelry by first hooking means , having engagement means with a male element connected, in turn, to a second end of said article of jewelry, goldsmith, silverware and costume jewelry by means of second coupling means ; - said engagement means being arranged to mutually couple said male element with said box-shaped body , said male element is arranged to be at least partially inserted inside a tubular element defined in said box-shaped body , in such a way as to allow mutual rotation of said box-shaped body and of said male element around the developing direction of said box-shaped body between a closed position and an opening position of the closing device ; - elastic means for pushing said male element in the developing direction , in order to disengage it from said box-shaped body ; - a plunger positioned internally of said box-shaped body and having a stroke thickness interposed between said male element and said elastic means , in such a way that, in the closed position, said male element exerts a pressure higher than the thrust of said elastic means , characterized in that said plunger also comprising a stop element in opening position; and said tubular element comprises, on its bottom, a passage hole for said plunger .
A decoder unit configured to decode a plurality of texels in accordance with a texel request, the plurality of texels being encoded across one or more blocks of encoded texture data each encoding a block of texels, the decoder unit comprising: a first set of decoders, each of the first set of decoders being configured to decode a maximum of n texels in parallel from a single received block of encoded texture data; a second set of one or more decoders, each of the second set of decoders being configured to decode a maximum of p texels in parallel from a single received block of encoded texture data, where p < n ; and control logic configured to allocate different blocks of encoded texture data to the decoders in accordance with the texel request, characterised in that : the ratio of the number of decoders in the first set to the number of decoders in the second set is 4:2 and each of the second set of one or more decoders is configured to decode a maximum of one texel from a received block of encoded texture data; or the ratio of the number of decoders in the first set to the number of decoders in the second set is 4:1 and each of the second set of one or more decoders is configured to decode a maximum of two texels in parallel from a received block of encoded texture data. a first set of decoders, each of the first set of decoders being configured to decode a maximum of n texels in parallel from a single received block of encoded texture data; a second set of one or more decoders, each of the second set of decoders being configured to decode a maximum of p texels in parallel from a single received block of encoded texture data, where p < n ; and control logic configured to allocate different blocks of encoded texture data to the decoders in accordance with the texel request, characterised in that : the ratio of the number of decoders in the first set to the number of decoders in the second set is 4:2 and each of the second set of one or more decoders is configured to decode a maximum of one texel from a received block of encoded texture data; or the ratio of the number of decoders in the first set to the number of decoders in the second set is 4:1 and each of the second set of one or more decoders is configured to decode a maximum of two texels in parallel from a received block of encoded texture data. the ratio of the number of decoders in the first set to the number of decoders in the second set is 4:2 and each of the second set of one or more decoders is configured to decode a maximum of one texel from a received block of encoded texture data; or the ratio of the number of decoders in the first set to the number of decoders in the second set is 4:1 and each of the second set of one or more decoders is configured to decode a maximum of two texels in parallel from a received block of encoded texture data.
A method comprising receiving , by a base station from a wireless device, a message comprising a first sequence of a plurality of parameters, characterized by a first parameter in the first sequence indicating whether a V2X transmission configuration is supported in a first band combination, wherein the first band combination comprises a third sequence of a plurality of band identifiers, a band identifier of the third sequence indicates a specific band, and the first band combination is in a second sequence of a plurality of band combinations associated with the wireless device, and wherein an index of the first parameter in the first sequence identifies the first band combination in the second sequence; and transmitting , based on the message, a second message comprising configuration parameters of at least one cell for V2X communications, wherein the at least one cell operates in one of the plurality of band combinations that supports the V2X transmission configuration. receiving , by a base station from a wireless device, a message comprising a first sequence of a plurality of parameters, characterized by a first parameter in the first sequence indicating whether a V2X transmission configuration is supported in a first band combination, wherein the first band combination comprises a third sequence of a plurality of band identifiers, a band identifier of the third sequence indicates a specific band, and the first band combination is in a second sequence of a plurality of band combinations associated with the wireless device, and wherein an index of the first parameter in the first sequence identifies the first band combination in the second sequence; and transmitting , based on the message, a second message comprising configuration parameters of at least one cell for V2X communications, wherein the at least one cell operates in one of the plurality of band combinations that supports the V2X transmission configuration.
A nozzle assembly , comprising: a nozzle shell ; and an insulator positioned within the shell; characterised in that the nozzle assembly comprises a nozzle insert positioned within the insulator , wherein the nozzle insert comprises: a first surface configured to frictionally engage a first type of gas diffuser assembly ; and threads formed in a wall of the nozzle insert to engage a second type of gas diffuser assembly wherein the nozzle insert comprises a shoulder formed in the wall between the threads and the first surface , wherein the shoulder is configured to abut a complementary front shoulder of the first type of gas diffuser assembly or the second type of gas diffuser assembly , and wherein the nozzle insert further includes a rear end configured to abut a rear shoulder of the first type of gas diffuser assembly or the second type of gas diffuser assembly . a nozzle shell ; and an insulator positioned within the shell; characterised in that the nozzle assembly comprises a nozzle insert positioned within the insulator , wherein the nozzle insert comprises: a first surface configured to frictionally engage a first type of gas diffuser assembly ; and threads formed in a wall of the nozzle insert to engage a second type of gas diffuser assembly wherein the nozzle insert comprises a shoulder formed in the wall between the threads and the first surface , wherein the shoulder is configured to abut a complementary front shoulder of the first type of gas diffuser assembly or the second type of gas diffuser assembly , and wherein the nozzle insert further includes a rear end configured to abut a rear shoulder of the first type of gas diffuser assembly or the second type of gas diffuser assembly . a first surface configured to frictionally engage a first type of gas diffuser assembly ; and threads formed in a wall of the nozzle insert to engage a second type of gas diffuser assembly wherein the nozzle insert comprises a shoulder formed in the wall between the threads and the first surface , wherein the shoulder is configured to abut a complementary front shoulder of the first type of gas diffuser assembly or the second type of gas diffuser assembly , and wherein the nozzle insert further includes a rear end configured to abut a rear shoulder of the first type of gas diffuser assembly or the second type of gas diffuser assembly .
An inhaler controller comprising: a first regulator configured to output a first voltage (V1) from a first voltage terminal (T1); a second regulator configured to output a second voltage (V2) from a second voltage terminal (T2), the second voltage (V2) being different from the first voltage (V1); a first path (P1) configured to connect the first voltage terminal (T1) and a connection terminal (C1) to which a heater (HT) configured to heat an aerosol source is connected; a second path (P2) configured to connect the second voltage terminal (T2) and the connection terminal (C1) via a resistor (Rs); and a measurement circuit (MC) configured to measure a resistance value of the heater (HT), wherein the first regulator is configured to output the first voltage (V1) having a voltage value in accordance with given information which is associated with heating strength of the aerosol source by the heater (HT). a first regulator configured to output a first voltage (V1) from a first voltage terminal (T1); a second regulator configured to output a second voltage (V2) from a second voltage terminal (T2), the second voltage (V2) being different from the first voltage (V1); a first path (P1) configured to connect the first voltage terminal (T1) and a connection terminal (C1) to which a heater (HT) configured to heat an aerosol source is connected; a second path (P2) configured to connect the second voltage terminal (T2) and the connection terminal (C1) via a resistor (Rs); and a measurement circuit (MC) configured to measure a resistance value of the heater (HT), wherein the first regulator is configured to output the first voltage (V1) having a voltage value in accordance with given information which is associated with heating strength of the aerosol source by the heater (HT).
Shift register protected against physical attacks, characterized in that it comprises a coding module receiving input bits and encoding, at each clock cycle, an input bit ( b in ) into a codeword of size K > 1, a plurality K of basic shift registers (330 1 ,...,330 K ) each comprising the same number N > 2 of memory cells, each basic shift register receiving as input one bit ( S n k ) of the codeword and supplying one bit of a word to be decoded of size K in order to generate one output bit ( b out ) , the codewords being chosen in such a way as to all have the same non-zero Hamming weight and each pair of consecutive codewords having the same non-zero Hamming distance, said shift register further comprising an external state machine, clocked by said clock and cyclically running through a sequence of states, the codeword generated by the coding module being a function of the input bit and of the current bit of said external state machine, said external state machine being produced in the form of a synchronous binary counter suppling a parity in the number of clock cycles using an initialization instant, the codeword generated by the coding module being a function of the input bit and of said parity.
A blow molding machine assembly configured to be mounted to a blow molding machine to move a mold base configured to form a container base, the blow molding machine assembly comprising: an over-stroke cylinder configured to move the mold base along a longitudinal axis of the assembly between an extended base position and a retracted base position; and a counter-stretch device movable along the longitudinal axis between a retracted counter-stretch position in which the counter-stretch device does not extend out from within the mold base , and an extended counter-stretch position in which the counter-stretch device extends out from within the mold base ; characterized in that the mold base defines a main passageway extending therethrough from the hollow center of the overstroke-cylinder and into the mold base , wherein a plurality of secondary passageways extend from the main passageway to an upper and outer surface at the mold base , the main and the secondary passageways being configured to permit airflow to pass out from within the over-stroke cylinder to an outer surface of the mold base to facilitate removal of a bottle off of the base , wherein preferably the blow-molding machine is a two-step blow molding machine. an over-stroke cylinder configured to move the mold base along a longitudinal axis of the assembly between an extended base position and a retracted base position; and a counter-stretch device movable along the longitudinal axis between a retracted counter-stretch position in which the counter-stretch device does not extend out from within the mold base , and an extended counter-stretch position in which the counter-stretch device extends out from within the mold base ; characterized in that the mold base defines a main passageway extending therethrough from the hollow center of the overstroke-cylinder and into the mold base , wherein a plurality of secondary passageways extend from the main passageway to an upper and outer surface at the mold base , the main and the secondary passageways being configured to permit airflow to pass out from within the over-stroke cylinder to an outer surface of the mold base to facilitate removal of a bottle off of the base , wherein preferably the blow-molding machine is a two-step blow molding machine.
Planetary roller screw mechanism comprising: - a screw shaft provided with at least one external thread (T4), - a nut provided with at least three internal threads (T6) and - at least three rollers arranged, radially with respect to a central axis (X4) of the screw shaft, between the screw shaft and the nut, each roller being provided with at least two external threads (T8 1 , T8 2 ), whereas the number (N4) of external threads (T4) of the screw shaft is a multiple of the number (N8) of external threads of a roller, and the number (N6) of internal threads (T6) of the nut is a multiple of the number of external threads of a roller, characterized in that the number (N6) of internal threads (T6) of the nut equals the number (N4) of external threads (T4) of the screw shaft . - a screw shaft provided with at least one external thread (T4), - a nut provided with at least three internal threads (T6) and - at least three rollers arranged, radially with respect to a central axis (X4) of the screw shaft, between the screw shaft and the nut, each roller being provided with at least two external threads (T8 1 , T8 2 ),