mhurhangee/ep-ind-claims huggingface dataset:
A power hand tool, comprising: a housing containing a working shaft; and a vibration isolation assembly, the vibration isolation assembly including at least one base member (142, 144) including a base portion fixed with respect to the housing, at least one vibration isolation portion including a first portion operably connected to the at least one base member (142, 144), the at least one vibration isolation portion configured to isolate vibration in at least one direction, and a grip member included in a nose portion of the housing having an outer surface configured to be gripped by a user and an inner surface operably connected to an outer portion of the at least one vibration isolation portion, wherein the grip member includes a sled, the sled being supported by the housing by two base members in the form of pins (142, 144) which are rigidly connected to the housing, the pins (142, 144) extending through a respective rear washer supporting isolator (146, 148) each of which is fixedly connected to a respective rear isolator (150, 152), the isolators (150, 152) being positioned within a rear isolator cavity, wherein the rear washer supporting isolators (146, 148) are adapted to move along a working shaft axis and generate a force against the rear isolators (150, 152), and wherein the grip member is operably connected to an outer radial surface of the isolators (150, 152). a housing containing a working shaft; and a vibration isolation assembly, the vibration isolation assembly including at least one base member (142, 144) including a base portion fixed with respect to the housing, at least one vibration isolation portion including a first portion operably at least one base member (142, 144) including a base portion fixed with respect to the housing, at least one vibration isolation portion including a first portion operably connected to the at least one base member (142, 144), the at least one vibration isolation portion configured to isolate vibration in at least one direction, and a grip member included in a nose portion of the housing having an outer surface configured to be gripped by a user and an inner surface operably connected to an outer portion of the at least one vibration isolation portion, wherein the grip member includes a sled, the sled being supported by the housing by two base members in the form of pins (142, 144) which are rigidly connected to the housing, the pins (142, 144) extending through a respective rear washer supporting isolator (146, 148) each of which is fixedly connected to a respective rear isolator (150, 152), the isolators (150, 152) being positioned within a rear isolator cavity, wherein the rear washer supporting isolators (146, 148) are adapted to move along a working shaft axis and generate a force against the rear isolators (150, 152), and wherein the grip member is operably connected to an outer radial surface of the isolators (150, 152).
A liquid fabric softener, containing a) from 1 to 5 wt.% of textile-softening compound, based on the total fabric softener, and b) from 0.01 to 0.5 wt.%, based on the total fabric softener, of a C 16 fatty material, which is palmitic acid. a) from 1 to 5 wt.% of textile-softening compound, based on the total fabric softener, and b) from 0.01 to 0.5 wt.%, based on the total fabric softener, of a C 16 fatty material, which is palmitic acid.
An attachment structure of a handle base disposed on a rear surface of a door panel and supporting an operation handle that is mounted from a front surface side of the door panel, the attachment structure of the handle base comprising: a mounting opening provided in the door panel and temporarily fixing the handle base therein, characterized by: a pair of protruding portions provided in a peripheral edge of the mounting opening; hook-shaped pressing portions that are provided in the handle base and that ride on the pair of protruding portions; and a locking piece that is provided in the handle base and abuts against the peripheral edge of the mounting opening other than the pair of protruding portions, wherein the handle base is temporarily fixed to the door panel by the hook-shaped pressing portions and the locking piece. a mounting opening provided in the door panel and temporarily fixing the handle base therein, characterized by: a pair of protruding portions provided in a peripheral edge of the mounting opening; hook-shaped pressing portions that are provided in the handle base and that ride on the pair of protruding portions; and a locking piece that is provided in the handle base and abuts against the peripheral edge of the mounting opening other than the pair of protruding portions, a pair of protruding portions provided in a peripheral edge of the mounting opening; hook-shaped pressing portions that are provided in the handle base and that ride on the pair of protruding portions; and a locking piece that is provided in the handle base and abuts against the peripheral edge of the mounting opening other than the pair of protruding portions, wherein the handle base is temporarily fixed to the door panel by the hook-shaped pressing portions and the locking piece.
A process for producing glass fibers from raw glass batch in a refractory-lined glass melter, the process comprising the steps of: charging raw glass batch to the melting zone of a refractory-lined glass melter, the glass batch consisting of: 64-70 weight percent SiO 2; 17-22 weight percent Al 2 O 3; 9-12 weight percent MgO; 1.75-3.0 weight percent R 2 O, where R 2 O equals the sum of Li 2 O, Na 2 O and K 2 O; and trace impurities present in the raw materials providing the SiO 2, Al 2 O 3, MgO and R 2 O components, each impurity being present in an amount of 0.05 weight percent or less; heating the glass batch to a forming temperature in excess of the liquidus temperature of a resulting glass to form a fiberizable molten glass; and fiberizing said molten glass. charging raw glass batch to the melting zone of a refractory-lined glass melter, the glass batch consisting of: 64-70 weight percent SiO 2; 17-22 weight percent Al 2 O 3; 9-12 weight percent MgO; 1.75-3.0 weight percent R 2 O, where R 2 O equals the sum of Li 2 O, Na 2 O and K 2 O; and trace impurities present in the raw materials providing the SiO 2, Al 2 O 3, MgO and R 2 O components, each impurity being present in an amount of 0.05 weight percent or less; 64-70 weight percent SiO 2; 17-22 weight percent Al 2 O 3; 9-12 weight percent MgO; 1.75-3.0 weight percent R 2 O, where R 2 O equals the sum of Li 2 O, Na 2 O and K 2 O; and trace impurities present in the raw materials providing the SiO 2, Al 2 O 3, MgO and R 2 O components, each impurity being present in an amount of 0.05 weight percent or less; heating the glass batch to a forming temperature in excess of the liquidus temperature of a resulting glass to form a fiberizable molten glass; and fiberizing said molten glass.
Cosmetic composition for topical application intended for the treatment of keratinous substances, in particular keratinous fibres, especially the hair, characterized in that it comprises, in a cosmetically acceptable medium, at least one monosaccharide and/or one disaccharide which is or are present in concentrations ranging from 0.05% to 10% by weight with respect to the total weight of the composition, at least one α-hydroxy acid and at least one compound of ceramide type; the composition comprising from 50 to 95% by weight of water, with respect to the total weight of the composition.
Solid core optical fibre comprising a glass fibre, which is provided with a sheath, wherein: - the outside diameter of the sheath is 0.2 mm to 1.2 mm, - the ratio D/d between the outside diameter D of the sheath and the diameter d of the glass fibre is 2 to 6, characterized in that - the sheath comprises the following composition: a mixture of poly-ether ether ketone and an inorganic filler in an admixture of at least 10 and maximum 40 percent by weight, with a particle size of 0.08 μm to 12 μm, and - a pressure of the sheath on the glass fibre is such that essentially no relative movement between the glass fibre and the sheath can occur. - the outside diameter of the sheath is 0.2 mm to 1.2 mm, - the ratio D/d between the outside diameter D of the sheath and the diameter d of the glass fibre is 2 to 6, - the sheath comprises the following composition: a mixture of poly-ether ether ketone and an inorganic filler in an admixture of at least 10 and maximum 40 percent by weight, with a particle size of 0.08 μm to 12 μm, and - a pressure of the sheath on the glass fibre is such that essentially no relative movement between the glass fibre and the sheath can occur.
Wind turbine comprising a tower with an interior enclosed by a tower wall which forms a heat exchange surface in an air cooling circuit, characterised in that the tower interior forms a channel for guiding hot air along a flow path, and in that one or more air flow deflectors are arranged within the flow path for guiding the flow horizontally towards the tower wall.
An MBMS session processing method, comprising: acquiring an interruption detection instruction that is manually input, wherein the interruption detection instruction comprises a first threshold which is same corresponding to the target MBMS session that is managed by an MBMS GW multimedia broadcast multicast service network element, or acquiring an interruption detection instruction from signaling that is corresponding to the target MBMS session and is sent by an uplink network element, wherein the interruption detection instruction comprises a first threshold corresponding to the indicated target MBMS session; starting a timer corresponding to the target MBMS session that is indicated in the interruption detection instruction, and resetting a value of a preset counter corresponding to the target MBMS session to zero; acquiring, when the timer corresponding to the target MBMS session reaches a specified timeout limit, traffic generated by the target MBMS session; when currently acquired traffic which is generated by the target MBMS session equals previously acquired traffic which is generated by the target MBMS session, increasing the value of the preset counter by one or increasing the value of the preset counter by one time unit, wherein a value of one time unit is a time duration from when the timer value is zero to when the timer reaches the specified timeout limit; and releasing, when the value of the preset counter equals the first threshold, the resources occupied by the target MBMS session. acquiring an interruption detection instruction that is manually input, wherein the interruption detection instruction comprises a first threshold which is same corresponding to the target MBMS session that is managed by an MBMS GW multimedia broadcast multicast service network element, or acquiring an interruption detection instruction from signaling that is corresponding to the target MBMS session and is sent by an uplink network element, wherein the interruption detection instruction comprises a first threshold corresponding to the indicated target MBMS session; starting a timer corresponding to the target MBMS session that is indicated in the interruption detection instruction, and resetting a value of a preset counter corresponding to the target MBMS session to zero; acquiring, when the timer corresponding to the target MBMS session reaches a specified timeout limit, traffic generated by the target MBMS session; when currently acquired traffic which is generated by the target MBMS session equals previously acquired traffic which is generated by the target MBMS session, increasing the value of the preset counter by one or increasing the value of the preset counter by one time unit, wherein a value of one time unit is a time duration from when the timer value is zero to when the timer reaches the specified timeout limit; and releasing, when the value of the preset counter equals the first threshold, the resources occupied by the target MBMS session.
Implantable device (10,13,15) comprising a driving unit and a kinematic assembly joined together: the driving unit comprising an electric motor driving a first magnetic rotor; the kinematic assembly comprising a second magnetic rotor, magnetically coupled to said first magnetic rotor such that it can be rotationally driven by the motor, and an actuator driven by the second rotor, wherein the driving unit is enclosed into an hermetic capsule; and the second magnetic rotor is outside the hermetic capsule.
A ramp signal output circuit configured to output a ramp signal having a potential varying depending on time, the ramp signal output circuit comprising: an integration circuit configured to output the ramp signal, wherein the integration circuit includes a differential amplification unit and an integral capacitance disposed at a feedback path electrically connecting an output terminal of the differential amplification unit and a first input terminal of the differential amplification unit, wherein the differential amplification unit further comprises a second input terminal to which a reference voltage is input, and wherein the integration circuit is configured to output the ramp signal from the output terminal of the differential amplification unit; a voltage supply unit (60; 60-1) configured to supply a plurality of voltages having different amplitudes to the integration circuit; a current supply unit configured to supply a current to the integration circuit, wherein the current supply unit is electrically connected to the first input terminal of the differential amplification unit; and a capacitive element, wherein the voltage supply unit is electrically connected to one terminal of the capacitive element, and the integration circuit and the current supply unit are electrically connected to another terminal of the capacitive element, and wherein a ramp start potential, from which the potential of the ramp signal starts to vary depending on time, is determined based on the voltage supplied from the voltage supply unit to the integration circuit via the capacitive element. an integration circuit configured to output the ramp signal, wherein the integration circuit includes a differential amplification unit and an integral capacitance disposed at a feedback path electrically connecting an output terminal of the differential amplification unit and a first input terminal of the differential amplification unit, wherein the differential amplification unit further comprises a second input terminal to which a reference voltage is input, and wherein the integration circuit is configured to output the ramp signal from the output terminal of the differential amplification unit; a voltage supply unit (60; 60-1) configured to supply a plurality of voltages having different amplitudes to the integration circuit; a current supply unit configured to supply a current to the integration circuit, wherein the current supply unit is electrically connected to the first input terminal of the differential amplification unit; and a capacitive element, wherein the voltage supply unit is electrically connected to one terminal of the capacitive element, and the integration circuit and the current supply unit are electrically connected to another terminal of the capacitive element, and wherein a ramp start potential, from which the potential of the ramp signal starts to vary depending on time, is determined based on the voltage supplied from the voltage supply unit to the integration circuit via the capacitive element.
A manufacturing method comprising: a) formation on a first substrate (10,110,100) of a plurality of elemental LED or photovoltaic structures (25,125), each comprising at least one p-type layer (16,20,120), an active zone (18,118) and an n-type layer (12,112); b) formation of a first planar metal layer (40,42,140, 142) on the elemental structures, leading to a structure (45,145); c) provision of a transfer substrate (50,150) comprising on one of its surfaces a second planar metal layer (46,146); d) assembly of the elemental structures with the transfer substrate (50,150) by bonding of the first (40,42,140, 142) and second (46,146) metal layers; and e) removal of the first substrate (10,110,100); The method being characterized in that the bonding is carried out by molecular adhesion at room temperature, wherein a bonding wave propagation is initiated without application of a pressure point or by application of a pressure point on one position of the structure (45,145) and/or the transfer substrate (50,150). a) formation on a first substrate (10,110,100) of a plurality of elemental LED or photovoltaic structures (25,125), each comprising at least one p-type layer (16,20,120), an active zone (18,118) and an n-type layer (12,112); b) formation of a first planar metal layer (40,42,140, 142) on the elemental structures, leading to a structure (45,145); c) provision of a transfer substrate (50,150) comprising on one of its surfaces a second planar metal layer (46,146); d) assembly of the elemental structures with the transfer substrate (50,150) by bonding of the first (40,42,140, 142) and second (46,146) metal layers; and e) removal of the first substrate (10,110,100);
A solar cell comprising: a photoelectric conversion unit comprising a first conductivity type region and a second conductivity type region formed on the same side of the photoelectric conversion unit; and an electrode formed on the photoelectric conversion unit and comprising an adhesive layer formed on the photoelectric conversion unit and an electrode layer formed on the adhesive layer, wherein the following is fulfilled: the adhesive layer is formed of titanium (Ti) or tungsten, has a smaller thickness than the electrode layer and has a thickness of 50 nm or less; and wherein the electrode layer comprises: a first electrode layer disposed on the adhesive layer and comprising at least one of copper (Cu), aluminum (Al), silver (Ag), gold (Au), and alloys thereof, a second electrode layer formed on the first electrode, the second electrode layer being connected to a ribbon and comprising at least one of tin (Sn) and a nickel (Ni)-vanadium alloy, wherein a coefficient of thermal expansion of the adhesive layer is greater than coefficients of thermal expansion of both the first conductivity type region and the second conductivity type region and is less than a coefficient of thermal expansion of the electrode layer. a photoelectric conversion unit comprising a first conductivity type region and a second conductivity type region formed on the same side of the photoelectric conversion unit; and an electrode formed on the photoelectric conversion unit and comprising an adhesive layer formed on the photoelectric conversion unit and an electrode layer formed on the adhesive layer, wherein the following is fulfilled: the adhesive layer is formed of titanium (Ti) or tungsten, has a smaller thickness than the electrode layer and has a thickness of 50 nm or less; and wherein the electrode layer comprises: a first electrode layer disposed on the adhesive layer and comprising at least one of copper (Cu), aluminum (Al), silver (Ag), gold (Au), and alloys thereof, a second electrode layer formed on the first electrode, the second electrode layer being connected to a ribbon and comprising at least one of tin (Sn) and a nickel (Ni)-vanadium alloy, wherein a coefficient of thermal expansion of the adhesive layer is greater than coefficients of thermal expansion of both the first conductivity type region and the second conductivity type region and is less than a coefficient of thermal expansion of the electrode layer. a first electrode layer disposed on the adhesive layer and comprising at least one of copper (Cu), aluminum (Al), silver (Ag), gold (Au), and alloys thereof, a second electrode layer formed on the first electrode, the second electrode layer being connected to a ribbon and comprising at least one of tin (Sn) and a nickel (Ni)-vanadium alloy, wherein a coefficient of thermal expansion of the adhesive layer is greater than coefficients of thermal expansion of both the first conductivity type region and the second conductivity type region and is less than a coefficient of thermal expansion of the electrode layer.
A paper conveying apparatus comprising: a sound signal generator, provided with a sound detector near a conveyance path of a paper, configured to generate a time-varying sound signal as output corresponding to a sound generated by the paper during conveyance of the paper; a sound jam detector configured to determine whether a jam has occurred based on a shape of the time-varying sound signal; a frequency signal generator configured to generate a frequency signal by converting the time-varying sound signal to frequency; a special sound detector configured to determine whether a special sound has been generated based on a component of a predetermined frequency band of the frequency signal; and a control module configured to perform abnormal processing when the sound jam detector determines that a jam has occurred and the special sound detector determines that a special sound has not been generated, and to determine that no jam has occurred and not perform the abnormal processing when the sound jam detector determines that a jam has occurred and the special sound detector determines that a special sound has been generated. a sound signal generator, provided with a sound detector near a conveyance path of a paper, configured to generate a time-varying sound signal as output corresponding to a sound generated by the paper during conveyance of the paper; a sound jam detector configured to determine whether a jam has occurred based on a shape of the time-varying sound signal; a frequency signal generator configured to generate a frequency signal by converting the time-varying sound signal to frequency; a special sound detector configured to determine whether a special sound has been generated based on a component of a predetermined frequency band of the frequency signal; and a control module configured to perform abnormal processing when the sound jam detector determines that a jam has occurred and the special sound detector determines that a special sound has not been generated, and to determine that no jam has occurred and not perform the abnormal processing when the sound jam detector determines that a jam has occurred and the special sound detector determines that a special sound has been generated.
A foamable, liquid cleaning composition comprising: i. 0.5 to 5 wt.% C 8-18 alkoxylated anionic surfactant having 1 to 30 moles of alkylene oxide, preferably has 1 to 20 moles of ethylene oxide, more preferably 1 to 10 moles of ethylene oxide; ii. 5 to 20 wt.% nonionic surfactants; iii. 0.1 to 10 wt.% water miscible glycol ether solvent; iv. 0.1 to 10 wt.% water immiscible fatty acid ester solvent selected from the group consisting of methyl laurate, ethyl laurate, ethyl octanoate or mixtures thereof; v. 0.5 to 10% of sequestrant selected from the group consisting of citric, adipic, succinic, maleic, glutaric acids, mixtures thereof or salts thereof; and vi. water; wherein the composition has a viscosity of less than 100 mPa.s at 25°C and 20 s -1, wherein ratio of the sum of alkoxylated surfactant and nonionic surfactant to the solvent is in a weight ratio ranging from 0.93:1 to 20:1, and wherein the pH of the composition ranges from 2.0 to 4.5, preferably from 2.5 to 4.0. i. 0.5 to 5 wt.% C 8-18 alkoxylated anionic surfactant having 1 to 30 moles of alkylene oxide, preferably has 1 to 20 moles of ethylene oxide, more preferably 1 to 10 moles of ethylene oxide; ii. 5 to 20 wt.% nonionic surfactants; iii. 0.1 to 10 wt.% water miscible glycol ether solvent; iv. 0.1 to 10 wt.% water immiscible fatty acid ester solvent selected from the group consisting of methyl laurate, ethyl laurate, ethyl octanoate or mixtures thereof; v. 0.5 to 10% of sequestrant selected from the group consisting of citric, adipic, succinic, maleic, glutaric acids, mixtures thereof or salts thereof; and vi. water;