mhurhangee/ep-ind-claims huggingface dataset:
A structural element of a motor vehicle, the structural element comprising: - a cradle for receiving an engine of the motor vehicle; - two extensions disposed on either side of the cradle; - two horns disposed on either side of the cradle, each horn comprising: o a main body, o a first means for fixing said horn to the cradle, o a second means for fixing the structural element to the body of the motor vehicle, o an arm having a base and projecting from the main body from the base, the arm having, at an end opposite the base, the second fastening means, o a third means for fastening said horn and one of the extensions; the structural element being characterized in that each horn comprises a fourth fastening means connecting said horn and a suspension triangle of the motor vehicle. - a cradle for receiving an engine of the motor vehicle; - two extensions disposed on either side of the cradle; - two horns disposed on either side of the cradle, each horn comprising: o a main body, o a first means for fixing said horn to the cradle, o a second means for fixing the structural element to the body of the motor vehicle, o an arm having a base and projecting from the main body from the base, the arm having, at an end opposite the base, the second fastening means, o a third means for fastening said horn and one of the extensions; the structural element being characterized in that each horn comprises a fourth fastening means connecting said horn and a suspension triangle of the motor vehicle. o a main body, o a first means for fixing said horn to the cradle, o a second means for fixing the structural element to the body of the motor vehicle, o an arm having a base and projecting from the main body from the base, the arm having, at an end opposite the base, the second fastening means, o a third means for fastening said horn and one of the extensions;
A redispersible polymer powder composition comprising multilayer polymer particles of (i) from 50 to 90 wt.%, based on total polymer solids, of epoxy resin compositions having a calculated glass transition temperature (calculated Tg) of from 0 to 40 °C, and (ii) from 10 to 50 wt.%, based on polymer solids, of an alkali soluble polymer shell around the epoxy resin, which polymer shell is the copolymerized product of from 5 to 50 wt.% of methacrylic acid or its anhydride, based on the total weight of monomers copolymerized to form the polymer shell, and the remainder of one or more ethylenically unsaturated comonomer, and (iv) an additive chosen from a divalent metal ion (M 2+) having a pKa of 9.55 or higher and its strong acid (acid pKa≤ 3.5) or organic acid salt having a pH in water at a concentration of 1 wt.% of 7.0 or less, wherein the molar ratio of M 2+ ions to the carboxyl groups in the alkali soluble resin shell is from 10 to 200 mole %, wherein the term "calculated Tg" refers to the glass transition temperature of a (co)polymer as determined by the Fox equation, using temperature values in degrees Kelvin: 1 / Tg copolymer = Σ wf i / Tg i where Tg copolymer is the Tg of the copolymer, wf i is the weight-fraction of monomer "i" in the (co)polymer and Tg i is the glass transition temperature of a homopolymer made from monomer "i" and the summation is over all monomers "i".
A distributed battery management system comprising: a master module and at least one slave module, wherein each slave module is adapted to manage a corresponding battery pack, the battery pack being connected in series in a power circuit through a power cable, and wherein the master module and each slave module are respectively connected in the power circuit through the power cable, and the master module can be configured to communicate with the slave module through the power cable, and wherein the master module is connected to the positive electrode of the first battery pack of battery packs connected in series through a first switch of the master module, and the master module is connected to the negative electrode of the last battery of battery backs connected in series through a second switch of the master module, and characterised in that when the first switch is closed and the second switch is opened, the master module is configured to communicate with one or more slave modules before a breaker point of the power cable among the at least one slave module in a direction from a first battery pack to a last battery pack, and when the first switch is opened and the second switch is closed, the master module is configured to communicate with one or more slave modules after the breaker point in the direction. a master module and at least one slave module, wherein each slave module is adapted to manage a corresponding battery pack, the battery pack being connected in series in a power circuit through a power cable, and wherein the master module and each slave module are respectively connected in the power circuit through the power cable, and the master module can be configured to communicate with the slave module through the power cable, and wherein the master module is connected to the positive electrode of the first battery pack of battery packs connected in series through a first switch of the master module, and the master module is connected to the negative electrode of the last battery of battery backs connected in series through a second switch of the master module, and
A communications jack, comprising: a first jackwire contact; a second jackwire contact; a third jackwire contact; and a flexible substrate that has a first finger and a second finger, wherein the first jackwire contact and the third jackwire contact are each configured to electrically connect to respective first and third conductive structures (139-12, 139-14) on the first finger and the second jackwire contact is configured to electrically connect to a second conductive structure on the second finger. a first jackwire contact; a second jackwire contact; a third jackwire contact; and a flexible substrate that has a first finger and a second finger,
A nonaqueous electrolytic solution comprising an electrolyte and a nonaqueous solvent, the nonaqueous electrolytic solution further comprising an aromatic compound represented by Formula: wherein, R 1 to R 5 are independently hydrogen, a halogen, or an unsubstituted or halogen-substituted hydrocarbon group having 1 to 20 carbon atoms, and at least two of R 1 to R 7 may be bonded together to form a ring, and R 6 and R 7 are independently a hydrocarbon group having 1 to 12 carbon atoms, and Formula satisfies at least one of the requirements and: at least one of R 1 to R 5 is a halogen, or an unsubstituted or halogen-substituted hydrocarbon group having 1 to 20 carbon atoms, the total number of carbon atoms in R 1 to R 7 is 3 to 20 characterized in that two of R 1, R 6 and R 7 in Formula are bonded together to form a ring. R 1 to R 5 are independently hydrogen, a halogen, or an unsubstituted or halogen-substituted hydrocarbon group having 1 to 20 carbon atoms, and at least two of R 1 to R 7 may be bonded together to form a ring, and R 6 and R 7 are independently a hydrocarbon group having 1 to 12 carbon atoms, and at least one of R 1 to R 5 is a halogen, or an unsubstituted or halogen-substituted hydrocarbon group having 1 to 20 carbon atoms, the total number of carbon atoms in R 1 to R 7 is 3 to 20 characterized in that two of R 1, R 6 and R 7 in Formula are bonded together to form a ring.
A method of communicating audio or video representative data between a mobile unit and an associated access point in a wireless data communication system with mobile units associating with access points for data communication therewith, and wherein said data communication system operates according to a protocol wherein said mobile units are arranged to conserve power by signaling an associated access point that the mobile unit is entering power save mode, and wherein said associated access point buffers data packets for mobile units in power save mode until receiving a polling signal from a corresponding mobile unit, the method characterized by: signaling said associated access point that said mobile unit is entering a power save mode; after signaling, powering down a transmitter and receiver of said mobile unit for a selected period of time within a time period T, the selected period of time corresponds to a duration of at least an audio or video signal forming an audio or video signal data packet; accumulating of audio or video signal data in said mobile unit during the selected period of time to form at least audio or video representative transmit data packets; buffering audio or video representative receive data packets destined for said mobile unit at said access point; and powering up said mobile unit transmitter and receiver for communication with said associated access point for a communication session after the selected period of time, said communications session occurring during transmit/receive operation periods (64, 66, 68) at intervals corresponding to said time period, and including communicating said accumulated transmit data packets and said buffered receive data packets between said mobile unit and said associated access point. signaling said associated access point that said mobile unit is entering a power save mode; after signaling, powering down a transmitter and receiver of said mobile unit for a selected period of time within a time period T, the selected period of time corresponds to a duration of at least an audio or video signal forming an audio or video signal data packet; accumulating of audio or video signal data in said mobile unit during the selected period of time to form at least audio or video representative transmit data packets; buffering audio or video representative receive data packets destined for said mobile unit at said access point; and powering up said mobile unit transmitter and receiver for communication with said associated access point for a communication session after the selected period of time, said communications session occurring during transmit/receive operation periods (64, 66, 68) at intervals corresponding to said time period, and including communicating said accumulated transmit data packets and said buffered receive data packets between said mobile unit and said associated access point.
A measuring apparatus, which comprises one or more conductor patterns, measuring means for measuring the impedance produced by electrical coupling between conductor pattern and its environment and adaptor means for adapting the impedance produced by the coupling between the conductor pattern and its environment to the aforementioned measuring means, characterized in that: the adaptor means comprise one or more capacitors, and the adaptor means are connected in series with the aforementioned conductor pattern, wherein the conductor patterns are configured to be installed as a group under a floor surface and connected with sensor conductors to the measuring apparatus, and the conductor patterns are surrounded with insulation and each conductor pattern is connected only to a sensor lead that is connected to the measuring apparatus, and wherein the measuring apparatus is configured to measure alternating current by using the electrical coupling between each conductor pattern and other conductor patterns and/or the structure surrounding the conductor patterns, wherein measuring range of the aforementioned measuring means without the adaptor means is outside a range of impedance produced by the electrical coupling between the conductor pattern and its environment, and the aforementioned adaptor means are adapted to fit the impedance produced by the electrical coupling between the conductor pattern and its environment to be within the measuring range of the measuring means in such a way that the measuring apparatus is able to measure and monitor the strengths of electrical coupling specific to a conductor pattern in order to detect objects (K, K1) disposed on or moving on the floor surface. the adaptor means comprise one or more capacitors, and the adaptor means are connected in series with the aforementioned conductor pattern, wherein the conductor patterns are configured to be installed as a group under a floor surface and connected with sensor conductors to the measuring apparatus, and the conductor patterns are surrounded with insulation and each conductor pattern is connected only to a sensor lead that is connected to the measuring apparatus, and wherein the measuring apparatus is configured to measure alternating current by using the electrical coupling between each conductor pattern and other conductor patterns and/or the structure surrounding the conductor patterns, wherein measuring range of the aforementioned measuring means without the adaptor means is outside a range of impedance produced by the electrical coupling between the conductor pattern and its environment, and the aforementioned adaptor means are adapted to fit the impedance produced by the electrical coupling between the conductor pattern and its environment to be within the measuring range of the measuring means in such a way that the measuring apparatus is able to measure and monitor the strengths of electrical coupling specific to a conductor pattern in order to detect objects (K, K1) disposed on or moving on the floor surface.
A light-emitting element comprising: a light-emitting structure including a first semiconductor layer, an active layer, and a second semiconductor layer; a second conductive layer electrically connected to the second semiconductor layer; a first conductive layer including a plurality of through electrodes which are disposed in a plurality of via holes passing through the light-emitting structure and the second conductive layer and are electrically connected to the first semiconductor layer; an insulating layer configured to electrically insulate the plurality of through electrodes from the active layer, the second semiconductor layer, and the second conductive layer; and an electrode pad disposed in an exposed area of the second conductive layer, wherein width of the second conductive layer disposed between the plurality of through electrodes increase going away from the electrode pad, wherein the insulating layer includes a plurality of first insulating layers, which are respectively disposed in the plurality of via-holes and insulate the through electrodes from the active layer, the second semiconductor layer, and the second conductive layer, wherein each first insulating layer includes a first adjusting portion, which is a formed on a bottom surface of the via-hole and partially exposes the bottom surface of the via-hole, wherein each first insulating layer includes second adjusting portion configured to extend from the via-hole to the second conductive layer, and wherein widths of the second adjusting portions decrease going away from the electrode pad. a light-emitting structure including a first semiconductor layer, an active layer, and a second semiconductor layer; a second conductive layer electrically connected to the second semiconductor layer; a first conductive layer including a plurality of through electrodes which are disposed in a plurality of via holes passing through the light-emitting structure and the second conductive layer and are electrically connected to the first semiconductor layer; an insulating layer configured to electrically insulate the plurality of through electrodes from the active layer, the second semiconductor layer, and the second conductive layer; and an electrode pad disposed in an exposed area of the second conductive layer, wherein width of the second conductive layer disposed between the plurality of through electrodes increase going away from the electrode pad, wherein the insulating layer includes a plurality of first insulating layers, which are respectively disposed in the plurality of via-holes and insulate the through electrodes from the active layer, the second semiconductor layer, and the second conductive layer, wherein each first insulating layer includes a first adjusting portion, which is a formed on a bottom surface of the via-hole and partially exposes the bottom surface of the via-hole, wherein each first insulating layer includes second adjusting portion configured to extend from the via-hole to the second conductive layer, and wherein widths of the second adjusting portions decrease going away from the electrode pad.
Slip detection method for a laundry treatment appliance, wherein a drum of the laundry treatment appliance is driven by means of a belt drive having a motor comprising a drive shaft and a belt connecting the drive shaft of the motor and the drum in a torque-transmitting manner, in an operating state of the laundry treatment appliance with the motor switched on, according to which the method comprises the following method steps in the specified order: - operating the laundry treatment appliance in the operating state, and checking whether at least one previously defined measurement start condition is present; - switching off the torque of the motor for a previously defined measurement period if the measurement start condition is present; - measuring a rotational speed gradient of the motor over time during the measurement period; - comparing the measured rotational speed gradient with a previously defined limit value after the measurement period has elapsed; - checking whether the limit value is exceeded by the measured rotational speed gradient; - triggering a previously defined function of the laundry treatment appliance if the measured rotational speed gradient has exceeded the limit value or - returning to the first method step if the measured rotational speed gradient has not exceeded the limit value. - operating the laundry treatment appliance in the operating state, and checking whether at least one previously defined measurement start condition is present; - switching off the torque of the motor for a previously defined measurement period if the measurement start condition is present; - measuring a rotational speed gradient of the motor over time during the measurement period; - comparing the measured rotational speed gradient with a previously defined limit value after the measurement period has elapsed; - checking whether the limit value is exceeded by the measured rotational speed gradient; - triggering a previously defined function of the laundry treatment appliance if the measured rotational speed gradient has exceeded the limit value or - returning to the first method step if the measured rotational speed gradient has not exceeded the limit value.
A method for the preparation of kraft pulp with increased pulping yield from lignin-containing cellulosic material using polysulfide cooking liquor, wherein the lignin-containing cellulosic material is heated to a temperature in the range 50-100 °C followed by adding polysulfide cooking liquor to a first impregnation stage which in turn is followed by cooking stages resulting in a kraft pulp with a kappa number below 40 characterized in that the impregnation stage is conducted at high alkali concentration above 60 g/l when adding the polysulfide cooking liquor, low temperature and high polysulfide concentration above 3 g/l, or above 0,09 mol/l, when adding the polysulfide cooking liquor, using polysulfide cooking liquor at a liquor-to-wood ratio in the range 2.0 to 3.2, and that the temperature is between 80-120°C during a retention time resulting in a H-factor in the range 2-20 and preferably 2-10 of the impregnation stage.
Pre-expansion thermoplastic elastomer composition, non-crosslinked, comprising: - from 15 to 37% by weight, with respect to the total weight of the composition, one or more multiblock elastomers including at least one soft block having a glass transition temperature below 25°C and at least one hard block having a glass transition temperature, or a melting point in the case of a semicrystalline polymer, above or equal to 80°C, - heat-expandable polymer particles encapsulating a heat-expandable fluid, being present in a proportion of 0.5 to 2% by weight with respect to the total weight of the composition. - from 15 to 37% by weight, with respect to the total weight of the composition, one or more multiblock elastomers including at least one soft block having a glass transition temperature below 25°C and at least one hard block having a glass transition temperature, or a melting point in the case of a semicrystalline polymer, above or equal to 80°C, - heat-expandable polymer particles encapsulating a heat-expandable fluid, being present in a proportion of 0.5 to 2% by weight with respect to the total weight of the composition.
A method of operating an electric arc welder for performing a given weld process with a selected current waveform between an electrode and a workpiece, said method comprising: (a) sampling the weld current of said waveform at a given rate; (b) creating an event signal at a given location in said waveform; (c) counting the number of samples between successive event signals; and, (d) calculating a rms value for the weld current based upon said samples and said number. (a) sampling the weld current of said waveform at a given rate; (b) creating an event signal at a given location in said waveform; (c) counting the number of samples between successive event signals; and, (d) calculating a rms value for the weld current based upon said samples and said number.
A negative electrode active material, comprising a core and a coating layer covering a surface of the core, wherein the core comprises artificial graphite, the coating layer comprises amorphous carbon, the negative electrode active material has a surface area average particle size D(3,2) denoted as A, the negative electrode active material has a surface area average particle size D(3,2) denoted as B after powder compaction under a pressure of 20 kN, and the negative electrode active material satisfies: 72% ≤ B/A × 100% ≤ 82%.
A fun park attraction comprising a base resting on the ground, from which a support upright overhangingly extends which supports, at a upper end thereof, driving means connected to a rotating arm, whereby the axis of rotation V-V' of said driving means is inclined by an angle α with respect to the axis of symmetry S-S' of the rotating arm, said rotating arm having a first end and a second end, said second end being connected close to the median point of a forked element, ending with a pair of ends (81, 82), lying on an axis O-O' substantially orthogonal to the axis of symmetry S-S' of the rotating arm, characterized in that said attraction is provided with exclusively a single rotating arm having the first end rotatably constrained to said support upright by said driving means.