mhurhangee/ep-ind-claims huggingface dataset:
Vehicle bridge body for a multiple-unit rail vehicle, the body having no bogie and, at its first end, having a first supporting location and, at its second end, having a second supporting location, each for providing support on a rail car (6, 8) of the multiple-unit rail vehicle, and having a first walk-on entrance region and a second walk-on entrance region, characterized in that the two entrance regions (14, 16) are arranged at different heights in relation to the vehicle bridge body, and at least one walk-on crossover region is provided at the first end of the body, for crossover into one rail car of the multiple-unit rail vehicle, and a connecting region is provided in the interior of the vehicle bridge body, wherein a distance of the crossover region from a first of the entrance regions is smaller than from the second of the entrance regions, wherein the crossover region is connected to the first entrance region in a stepless manner via the connecting region. having no bogie and, at its first end, having a first supporting location and, at its second end, having a second supporting location, each for providing support on a rail car (6, 8) of the multiple-unit rail vehicle, and having a first walk-on entrance region and a second walk-on entrance region, characterized in that the two entrance regions (14, 16) are arranged at different heights in relation to the vehicle bridge body, and at least one walk-on crossover region is provided at the first end of the body, for crossover into one rail car of the multiple-unit rail vehicle, and a connecting region is provided in the interior of the vehicle bridge body, wherein a distance of the crossover region from a first of the entrance regions is smaller than from the second of the entrance regions, wherein the crossover region is connected to the first entrance region in a stepless manner via the connecting region.
Internal combustion engine comprising - a water cooling circuit to cool a cylinder jacket and an engine head comprising a coolant pump to recirculate water coolant and a coolant radiator, - a lubricating and cooling system comprising two or more oil consumers, wherein at least one oil consumer needs oil for lubrication and/or actuation (CB-RA, CM, CR), such as bearings, switching means for varying valve timing and/or engine brake, and a further oil consumer comprising at least one piston reciprocated with a respective cylinder, needing oil for cooling, the piston comprising an inner cooling passage having at least an inlet and an outlet, the system comprising at least one piston nozzle arranged in order to hit said inlet and an oil sump where the oil is collected; the combustion engine being characterized in that the lubricating and cooling system further comprises - an auxiliary oil circuit with an auxiliary pump sucking oil from said oil sump to feed the at least one piston nozzle, - a main oil circuit with a respective main pump for sucking oil from said oil sump to feed oil to said at least one oil consumer needing oil for lubrication and/or actuation (CB-RA, CM, CR), and in that said main circuit comprises a main cooler and said auxiliary circuit comprises an auxiliary cooler separated and thermally independent from said main cooler and in that said main and auxiliary circuits, according to a first operating condition, share only said oil sump. - a water cooling circuit to cool a cylinder jacket and an engine head comprising a coolant pump to recirculate water coolant and a coolant radiator, - a lubricating and cooling system comprising two or more oil consumers, wherein at least one oil consumer needs oil for lubrication and/or actuation (CB-RA, CM, CR), such as bearings, switching means for varying valve timing and/or engine brake, and a further oil consumer comprising at least one piston reciprocated with a respective cylinder, needing oil for cooling, the piston comprising an inner cooling passage having at least an inlet and an outlet, the system comprising at least one piston nozzle arranged in order to hit said inlet and an oil sump where the oil is collected; the combustion engine being characterized in that the lubricating and cooling system further comprises - an auxiliary oil circuit with an auxiliary pump sucking oil from said oil sump to feed the at least one piston nozzle, - a main oil circuit with a respective main pump for sucking oil from said oil sump to feed oil to said at least one oil consumer needing oil for lubrication and/or actuation (CB-RA, CM, CR),
Front end module for a motor vehicle comprising: - a protection element (BUB, BOL, SHRD), - an air intake control device comprising: - shutters (SHT1, SHT2), - an actuator arranged so as to control the shutters (SHT1, SHT2), and - a flexible connection (STR, ROD) connecting the actuator to the shutters (SHT1, SHT2) and able to displace the actuator in order to prevent the actuator from causing damage to an entity (PED, OBS) in the event of a collision between the motor vehicle and said entity (PED, OBS), - wherein the actuator is fixed to the protection element (BUB, BOL, SHRD), characterized in that said module comprises a radiator support and a radiator, said radiator support constituting said protection element. - a protection element (BUB, BOL, SHRD), - an air intake control device comprising: - shutters (SHT1, SHT2), - an actuator arranged so as to control the shutters (SHT1, SHT2), and - a flexible connection (STR, ROD) connecting the actuator to the shutters (SHT1, SHT2) and able to displace the actuator in order to prevent the actuator from causing damage to an entity (PED, OBS) in the event of a collision between the motor vehicle and said entity (PED, OBS), - shutters (SHT1, SHT2), - an actuator arranged so as to control the shutters (SHT1, SHT2), and - a flexible connection (STR, ROD) connecting the actuator to the shutters (SHT1, SHT2) and able to displace the actuator in order to prevent the actuator from causing damage to an entity (PED, OBS) in the event of a collision between the motor vehicle and said entity (PED, OBS), - wherein the actuator is fixed to the protection element (BUB, BOL, SHRD),
An electrosurgical device comprising: a. forceps including: i. a first working arm and ii. a second working arm; b. a blade electrode; c. an immobilization feature that is slidable along the electrosurgical device; wherein the electrosurgical device is capable of being switched between a first electrical configuration so that the electrosurgical device delivers a first therapy current through the first working arm, the second working arm, or both, and a second electrical configuration so that the electrosurgical device delivers a second therapy current through the blade electrode; and wherein the first working arm and the second working arm of the forceps are immobilized in the second electrical configuration by the immobilization feature being moved from a first position to a second position so that both the forceps and the first therapy current are disabled, and wherein the blade electrode extends between and beyond the first working arm and the second working arm in the second electrical configuration. a. forceps including: i. a first working arm and ii. a second working arm; i. a first working arm and ii. a second working arm; b. a blade electrode; c. an immobilization feature that is slidable along the electrosurgical device;
Support assembly for a mobile object, with a support wheel carrier on which a support wheel is loosely rotatably mounted about a first horizontal axis, wherein the support assembly is attachable to a mobile object such that for changing the running direction of the support wheel it, together with the support wheel carrier, is freely movable relative to the object about a second axis having a gap from the first axis and extending in a vertical plane containing the direction of movement of the object, wherein the support wheel carrier can be pivotably mounted between two defined end positions on the object in such a manner that in at least one of these two end positions the support wheel carrier extends obliquely downwards, characterised in that this is realised in that the support wheel carrier is connected to a steering axle as the second axis, wherein the steering axle is freely rotatably mounted in a bearing sleeve or is formed by a bearing bore and a bearing journal mounted freely rotatably in said bearing bore, wherein the bearing sleeve or the bearing bore for its part is pivotable relative to the mobile object in the vertical plane about a third axis extending horizontally and transversely to the direction of movement of said object between an end position associated with the forward movement of the object and an end position associated with the reverse travel.
A loop-type heat pipe comprising: an evaporator configured to vaporize an operating fluid; a condenser configured to condense the operating fluid; a liquid pipe configured to connect the evaporator and the condenser; a vapor pipe configured to connect the evaporator and the condenser and to form a loop together with the liquid pipe; a first porous body provided in the evaporator; and a second porous body provided in the liquid pipe, characterized in that a connection region between the evaporator and the liquid pipe comprises: a first extension part (841, 842) extending from the second porous body toward the first porous body, and a space part in contact with the first extension part (841, 842), and wherein a leading end of the first extension part (841, 842) is inserted in a first concave part formed in the first porous body. an evaporator configured to vaporize an operating fluid; a condenser configured to condense the operating fluid; a liquid pipe configured to connect the evaporator and the condenser; a vapor pipe configured to connect the evaporator and the condenser and to form a loop together with the liquid pipe; a first porous body provided in the evaporator; and a second porous body provided in the liquid pipe, a first extension part (841, 842) extending from the second porous body toward the first porous body, and a space part in contact with the first extension part (841, 842), and wherein a leading end of the first extension part (841, 842) is inserted in a first concave part formed in the first porous body.
An infrared multispectral imaging sensor comprising: - a photosensitive back-side-illumination detector which is produced on a first substrate made of InP and having a back side and a front side, and which is formed of a matrix of pixels (105, P1, P2, P3) themselves produced in an InGaAs-based structure deposited by epitaxy on the front side of the first substrate made of InP, and - a filtering module which is formed of a matrix of elementary filters (λ1, λ2, λ3) replicating said matrix of pixels, and which is made up of a stack of a first mirror and a second mirror separated by a spacer membrane, said filtering module defining a plurality of filtering cells (IF11, IF12,..., IF44) each comprising at least two filters (FP1, FP2, FP3), characterized in that - said filtering module is formed on a second substrate on which the first mirror, the spacer membrane, and the second mirror have been deposited in that order; - the second mirror is placed in contact with said first substrate, thus forming a hybrid multispectral imaging sensor which functions for wavelengths greater than 1000 nm and ranging up to 2200 nm; and - said first substrate made of InP having a thickness of less than 50 μm, preferably less than 30 μm. - a photosensitive back-side-illumination detector which is produced on a first substrate made of InP and having a back side and a front side, and which is formed of a matrix of pixels (105, P1, P2, P3) themselves produced in an InGaAs-based structure deposited by epitaxy on the front side of the first substrate made of InP, and - a filtering module which is formed of a matrix of elementary filters (λ1, λ2, λ3) replicating said matrix of pixels, and which is made up of a stack of a first mirror and a second mirror separated by a spacer membrane, said filtering module defining a plurality of filtering cells (IF11, IF12,..., IF44) each comprising at least two filters (FP1, FP2, FP3), characterized in that - said filtering module is formed on a second substrate on which the first mirror, the spacer membrane, and the second mirror have been deposited in that order; - the second mirror is placed in contact with said first substrate, thus forming a hybrid multispectral imaging sensor which functions for wavelengths greater than 1000 nm and ranging up to 2200 nm; and - said first substrate made of InP having a thickness of less than 50 μm, preferably less than 30 μm.
Method for limiting the deactivation of catalysts during catalytic reactions in multitubular reactors, characterized in that monoliths are used as particle filters, said monoliths comprising parallel channels, the walls of which are made of porous ceramic material, and the inlet cross section of which is greater than or equal to the outlet cross section, some channels being plugged at one end, and in that the monoliths consist of a single part adapted to the size of the tubes of the reactor, and are inserted partially into the tubes of the reactor.
A method for high band excitation signal generation comprising: determining, at a device, a voicing classification of an input signal, wherein the input signal corresponds to an audio signal; controlling an envelope of an excitation signal of the input signal based on the voicing classification, wherein the frequency range of the envelope is controlled based on a cut-off frequency of a low pass filter applied to the excitation signal of the input signal; modulating a white noise signal based on the controlled envelope; and generating a high band excitation signal based on the modulated white noise signal. determining, at a device, a voicing classification of an input signal, wherein the input signal corresponds to an audio signal; controlling an envelope of an excitation signal of the input signal based on the voicing classification, wherein the frequency range of the envelope is controlled based on a cut-off frequency of a low pass filter applied to the excitation signal of the input signal; modulating a white noise signal based on the controlled envelope; and generating a high band excitation signal based on the modulated white noise signal.
A blockable caster (Rob) comprising: a casing, at least one wheel, means for mounting the wheel rotatably relative to the casing on a rotary shaft, controllable blocking means for optionally blocking rotation of the wheel relative to the casing, and control means for actuating said controllable blocking means, said control means comprising: · a lever mounted to pivot relative to said casing between two positions referred to as a "rest position" (Pr) and an "actuation position" (Pab), the rest position being the position in which the lever does not actuate the controllable blocking means and allows the wheel to rotate relative to the casing, the actuation position being the position in which the lever actuates the controllable blocking means to block rotation of the wheel relative to the casing; · means for generating an elastic reaction counterforce between said lever and said casing when said lever passes from its rest position (Pr) to its actuation position (Pab); and · means for blocking said lever in its actuation position (Pab) after the action of a first external force on said lever, and for unblocking it from said actuation position (Pab) in order to tend to return it to its rest position (Pr) under the action of a second external force and of the elastic counterforce; the caster being characterized by the fact that the control means for actuating said controllable blocking means further comprise end-of-stroke damper means mounted in co-operation between said lever and said casing so as to damp the return of the lever to its rest position (Pr) when said lever passes from its actuation position (Pab) to its rest position (Pr) as a result of said second external force being applied. · a lever mounted to pivot relative to said casing between two positions referred to as a "rest position" (Pr) and an "actuation position" (Pab), the rest position being the position in which the lever does not actuate the controllable blocking means and allows the wheel to rotate relative to the casing, the actuation position being the position in which the lever actuates the controllable blocking means to block rotation of the wheel relative to the casing; · means for generating an elastic reaction counterforce between said lever and said casing when said lever passes from its rest position (Pr) to its actuation position (Pab); and · means for blocking said lever in its actuation position (Pab) after the action of a first external force on said lever, and for unblocking it from said actuation position (Pab) in order to tend to return it to its rest position (Pr) under the action of a second external force and of the elastic counterforce;
A method for manufacturing a cutting insert having a through-hole, by using a press tool comprising a die having a die cavity extending through the die along a first pressing axis, a first punch and a second punch, which are movable toward and away from each other and along said first pressing axis, and a core rod, that is arranged to be inserted into the die cavity in a direction which is non-parallel to the first pressing axis, said method comprising the steps: - moving the first and second punches (13, 14) to a die filling position; - inserting the core rod into the die cavity; - filling the die cavity with powder; - moving the first and second punches (13, 14) within the die cavity toward each other along the first pressing axis to compact the powder around the core rod into a cutting insert green body; - moving the core rod and the first and second punches (13, 14) to an ejection position to allow removal of the cutting insert green body from the die; - sintering the cutting insert green body; characterized in, that during at least a portion of the compaction step, the core rod is turned a predetermined angle in alternating direction around its longitudinal axis. - moving the first and second punches (13, 14) to a die filling position; - inserting the core rod into the die cavity; - filling the die cavity with powder; - moving the first and second punches (13, 14) within the die cavity toward each other along the first pressing axis to compact the powder around the core rod into a cutting insert green body; - moving the core rod and the first and second punches (13, 14) to an ejection position to allow removal of the cutting insert green body from the die; - sintering the cutting insert green body;
A process for oxidatively stabilizing oils treated with short path evaporation comprising the step of: Adding to SPE-treated oil at least one anti-oxidant while the SPE-treated oil has a peroxide value of below or equal to 1.5 milli-equivalent peroxide/kg and peroxide value is measured according to the AOCS Method Cd 8b-90, wherein the oil is derived from palm oil, and wherein the SPE-treated oil has been obtained from SPE treatment after at least one refining and/or processing step, and wherein the at least one refining and/or processing step is a deodorization step, and wherein the short path evaporation is performed at a temperature of from 200-280°C, and wherein the at least one anti-oxidant is added in a period of less than 1 minute up to 15 days after SPE treatment. Adding to SPE-treated oil at least one anti-oxidant while the SPE-treated oil has a peroxide value of below or equal to 1.5 milli-equivalent peroxide/kg and peroxide value is measured according to the AOCS Method Cd 8b-90, wherein the oil is derived from palm oil, and wherein the SPE-treated oil has been obtained from SPE treatment after at least one refining and/or processing step, and wherein the at least one refining and/or processing step is a deodorization step, and wherein the short path evaporation is performed at a temperature of from 200-280°C, and wherein the at least one anti-oxidant is added in a period of less than 1 minute up to 15 days after SPE treatment.
A method for obtaining yeast proteins, comprising the following steps: a) providing a yeast cream; b) exposing this yeast cream to thermal plasmolysis at a temperature of between 70 and 95 °C for a time of between 30 seconds and 4 hours, preferably between 1 minute and 3 hours, preferably between 40 minutes and 2 hours; c) subjecting the whole to the activity of at least one ribonuclease and one glucanase, sequentially or simultaneously, at a temperature of between 40 and 65 °C, preferably 60°C for a time of between 8 and 24h, preferably 18h; d) separating the insoluble fraction and soluble fraction; wherein the insoluble fraction collected at step d) is taste-free, has a nucleotide content of less than 3 % and true protein content of at least 72 %. a) providing a yeast cream; b) exposing this yeast cream to thermal plasmolysis at a temperature of between 70 and 95 °C for a time of between 30 seconds and 4 hours, preferably between 1 minute and 3 hours, preferably between 40 minutes and 2 hours; c) subjecting the whole to the activity of at least one ribonuclease and one glucanase, sequentially or simultaneously, at a temperature of between 40 and 65 °C, preferably 60°C for a time of between 8 and 24h, preferably 18h; d) separating the insoluble fraction and soluble fraction;
A photoelectric conversion device comprising: a photoelectric conversion layer, and an electron transport layer, wherein the electron transport layer includes metal oxide particles, and in response to performing an X-ray photoelectron spectroscopy analysis on the electron transport layer, two peaks representing 1s orbitals of oxygen atoms are detected, and a formula Y/(X+Y)≥0.5 is satisfied, where a peak area of a peak on a low-energy side among the two peaks is X and a peak area of a peak on a high-energy side among the two peaks is Y. a photoelectric conversion layer, and an electron transport layer, wherein the electron transport layer includes metal oxide particles, and in response to performing an X-ray photoelectron spectroscopy analysis on the electron transport layer, two peaks representing 1s orbitals of oxygen atoms are detected, and a formula Y/(X+Y)≥0.5 is satisfied, where a peak area of a peak on a low-energy side among the two peaks is X and a peak area of a peak on a high-energy side among the two peaks is Y. the electron transport layer includes metal oxide particles, and in response to performing an X-ray photoelectron spectroscopy analysis on the electron transport layer, two peaks representing 1s orbitals of oxygen atoms are detected, and a formula Y/(X+Y)≥0.5 is satisfied, where a peak area of a peak on a low-energy side among the two peaks is X and a peak area of a peak on a high-energy side among the two peaks is Y.