mhurhangee/ep-ind-claims huggingface dataset:
A universal tool mounting system for a machining center, the universal tool mounting system comprising: a drum mounted on a spindle mounted inside bearings, the bearings being mounted in a casting; and tapered bushes mounted into the spindle; characterized by a brake drum mounted onto the back of the spindle; an hydraulic cylinder mounted in the front of the casting; hydraulic distribution plates mounted onto the back of the casting; at least one hydraulic cylinder mounted onto the back of the drum; a plurality of tool holder unit stations mounted into a front face of the drum, with extra tools mounted on the drum,, a plurality of tool holder units (M1, M2, M3, M4, M5, M6, M7, M8, M9 and M10) mounted onto the tool holder unit station; coolant manifold blocks mounted onto the drum; a spindle and index drive unit mounted to the side of the casting on linear guide ways; a servo drive motor mounting to the top of the casting, the servo drive motor being configured to move the spindle and index drive unit along on the linear guide ways; an index drive unit mounted to the top of the casting on further linear guide ways; a magnetic brake drum assembly mounted onto the hydraulic distribution plates; a servo gear drive motor mounted into the back of the casting; sheet metal covers mounted on the drum and the casting; and, a CNC controller unit processing a program to move and control the above components, assemblies, stations and units. a drum mounted on a spindle mounted inside bearings, the bearings being mounted in a casting; and tapered bushes mounted into the spindle; characterized by a brake drum mounted onto the back of the spindle; an hydraulic cylinder mounted in the front of the casting; hydraulic distribution plates mounted onto the back of the casting; at least one hydraulic cylinder mounted onto the back of the drum; a plurality of tool holder unit stations mounted into a front face of the drum, with extra tools mounted on the drum,, a plurality of tool holder units (M1, M2, M3, M4, M5, M6, M7, M8, M9 and M10) mounted onto the tool holder unit station; coolant manifold blocks mounted onto the drum; a spindle and index drive unit mounted to the side of the casting on linear guide ways; a servo drive motor mounting to the top of the casting, the servo drive motor being configured to move the spindle and index drive unit along on the linear guide ways; an index drive unit mounted to the top of the casting on further linear guide ways; a magnetic brake drum assembly mounted onto the hydraulic distribution plates; a servo gear drive motor mounted into the back of the casting; sheet metal covers mounted on the drum and the casting; and, a CNC controller unit processing a program to move and control the above components, assemblies, stations and units.
A computer-implemented method performed by one or more processors configured with specific instructions, the computer-implemented method comprising: receiving, from a computing device (108a; 202), a request to initiate an outgoing call from a selected originating number to a destination number, the selected originating number being different from a device number assigned to the computing device (108a; 202); sending, to the computing device (108a; 202), a temporary routing number; receiving, from the computing device (108a; 202), a call directed to the temporary routing number; and initiating the outgoing call to the destination number that originates from the selected originating number; wherein the computer-implemented method further comprises: before the sending step, associating the temporary routing number with the selected originating number and the destination number; and before initiating the outgoing call, determining the originating number to associate with the outgoing call using the temporary routing number. receiving, from a computing device (108a; 202), a request to initiate an outgoing call from a selected originating number to a destination number, the selected originating number being different from a device number assigned to the computing device (108a; 202); sending, to the computing device (108a; 202), a temporary routing number; receiving, from the computing device (108a; 202), a call directed to the temporary routing number; and initiating the outgoing call to the destination number that originates from the selected originating number; wherein the computer-implemented method further comprises: before the sending step, associating the temporary routing number with the selected originating number and the destination number; and before initiating the outgoing call, determining the originating number to associate with the outgoing call using the temporary routing number. before the sending step, associating the temporary routing number with the selected originating number and the destination number; and before initiating the outgoing call, determining the originating number to associate with the outgoing call using the temporary routing number.
A method of generating a radio frequency signal based on a baseband signal, the method comprising: - providing an amplitude signal (r; Vamp; V ddm) and a phase signal (φ; [I p,Q p]) depending on the baseband signal; - modulating the phase signal (φ o; [I p,Q p]) to a carrier frequency (ω c) and amplifying the modulated phase signal according to the amplitude signal (r; Vamp; V ddm) to generate a preliminary radio frequency signal using a main modulating and amplifying unit; and - feeding a peak compensation signal, which depends on the baseband signal, into the preliminary radio frequency signal to generate the radio frequency signal, the peak compensation signal being generated using an auxiliary modulating and amplifying unit and configured to at least essentially compensate for a saturation in the main modulating and amplifying unit, wherein the auxiliary modulating and amplifying unit is further used for feeding an offset compensation signal into the preliminary radio frequency signal, when the baseband signal is modified by adding an offset signal to reduce a bandwidth expansion in at least one of the phase signal (φ; [I p,Q p]) and the amplitude signal (r; V amp; V ddm), the offset compensation signal being derived from the offset signal. - providing an amplitude signal (r; Vamp; V ddm) and a phase signal (φ; [I p,Q p]) depending on the baseband signal; - modulating the phase signal (φ o; [I p,Q p]) to a carrier frequency (ω c) and amplifying the modulated phase signal according to the amplitude signal (r; Vamp; V ddm) to generate a preliminary radio frequency signal using a main modulating and amplifying unit; and - feeding a peak compensation signal, which depends on the baseband signal, into the preliminary radio frequency signal to generate the radio frequency signal, the peak compensation signal being generated using an auxiliary modulating and amplifying unit and configured to at least essentially compensate for a saturation in the main modulating and amplifying unit, wherein the auxiliary modulating and amplifying unit is further used for feeding an offset compensation signal into the preliminary radio frequency signal, when the baseband signal is modified by adding an offset signal to reduce a bandwidth expansion in at least one of the phase signal (φ; [I p,Q p]) and the amplitude signal (r; V amp; V ddm), the offset compensation signal being derived from the offset signal.
A method for the manufacture of extruded whole grain chips, including the use of rice grits, corn grits, water and a flavouring additive which includes sunflower oil and/or olive oil, a rosemary extract and natural seasoning; treating the rice and corn grits by purifying them from impurities and subsequent moistening with water; extruding the finished mixture of the grits with simultaneous baking and briquetting with double pressing; applying the flavouring additive on the surface of the chips by spraying, the raw components for the manufacture of the chips being taken in the following ratio, wt. %: - water 5.0-10.0 - rice grits 30.0-44.0 - corn grits 30.0-44.0 - sunflower oil and/or olive oil 5.0-30.0 - a rosemary extract 0.005-0.02 - natural seasoning The rest.
A polyformal resin copolymer comprising a structural unit (a) represented by General Formula and a structural unit (b) represented by General Formula, wherein the proportions of the structural unit (a) and the structural unit (b) are in a range of 30: 70 to 80: 20 in a molar ratio: where, in General Formula, R 1 and R 2 are each independently a hydrocarbon group with a carbon atom number of 1 to 9 that does not contain an aromatic group or a halogen atom, p and q represent identical or different integers of 0 to 4, and W is any one of Formula below: wherein, R 3 and R 4 each represent a hydrogen atom, a fluorine atom, a chlorine atom, a bromine atom, an iodine atom, an alkyl group with a carbon atom number of 1 to 9, an alkoxy group with a carbon atom number of 1 to 5, an aryl group with a carbon atom number of 6 to 12, an alkenyl group with a carbon atom number of 2 to 5 or an aralkyl group with a carbon atom number of 7 to 17; R 3 and R 4 may also bind to each other and form a carbocyclic ring or a heterocyclic ring; R 5 to R 8 each represent a hydrogen atom, a fluorine atom, a chlorine atom, a bromine atom, an iodine atom, an alkyl group with a carbon atom number of 1 to 9, an alkoxy group with a carbon atom number of 1 to 5 or an aryl group with a carbon number of 6 to 12; and a represents an integer of 1 to 20, and wherein the polyformal resin copolymer has a refractive index in a range of 1.600 to 1.680.
Vacuum cleaner system comprising a vacuum cleaner comprising: a first housing comprising an air inlet, an air outlet, a motor fan unit for creating an airflow from the air inlet to the air outlet, a battery for powering the motor fan unit, and a first unit for charging the battery; and a charger comprising a second housing comprising a second unit for charging the battery; wherein the first unit is connected to the battery and the second unit is adapted to be connected to an external power source, and the first unit and the second unit are adapted for wireless power transfer from the second unit to the first unit wherein the first unit comprises a first control unit for controlling the status of the battery characte rised in that the second unit comprising a second control unit for controlling the charging and/or status of the battery.
An endoscopic instrument with - a proximal end, - a distal end, - a longitudinal direction along which the endoscopic instrument extends from the proximal end to the distal end, - an end effector at the distal end comprising a first end effector portion and a second end effector portion, - a connecting element at the distal end at which the first and second end effector portions (18, 20) are arranged and which extends along a transverse direction, - a first thrust element, - a second thrust element, - a third thrust element, and - a fourth thrust element, wherein the thrust elements (30, 32, 34, 36) each extend along the longitudinal direction and are displaceable relative to each other along the longitudinal direction, and wherein the first thrust element is mounted in an articulated manner on the first end effector portion, the second thrust element is mounted in an articulated manner on the second end effector portion, the third thrust element is mounted in an articulated manner on the connecting element, and the fourth thrust element is mounted in an articulated manner on the connecting element. - a proximal end, - a distal end, - a longitudinal direction along which the endoscopic instrument extends from the proximal end to the distal end, - an end effector at the distal end comprising a first end effector portion and a second end effector portion, - a connecting element at the distal end at which the first and second end effector portions (18, 20) are arranged and which extends along a transverse direction, - a first thrust element, - a second thrust element, - a third thrust element, and - a fourth thrust element,
A side airbag device, comprising: an inflator attached to a seat frame of a vehicle seat where an occupant sits; and an airbag that expands and deploys by a gas supplied from the inflator; the airbag comprising: a first expanding portion that expands and deploys toward a side of a shoulder of the occupant; a second expanding portion that expands and deploys farther forward than the first expanding portion; a third expanding portion that expands and deploys father rearward than the first expanding portion; and a tether attached to the second expanding portion and the seat frame characterized in that a recessed part is formed by the second expanding portion and the third expanding portion protruding more forward toward the occupant side than the first expanding portion, and the tether bridges the recessed part, and opposing the first expanding portion via the recessed part; wherein, when the tether comes in contact with a shoulder of the occupant upon expansion and deployment of the airbag, the second expanding portion changes shape in a direction closer to a front part of the occupant. an inflator attached to a seat frame of a vehicle seat where an occupant sits; and an airbag that expands and deploys by a gas supplied from the inflator; the airbag comprising: a first expanding portion that expands and deploys toward a side of a shoulder of the occupant; a second expanding portion that expands and deploys farther forward than the first expanding portion; a third expanding portion that expands and deploys father rearward than the first expanding portion; and a tether attached to the second expanding portion and the seat frame characterized in that a first expanding portion that expands and deploys toward a side of a shoulder of the occupant; a second expanding portion that expands and deploys farther forward than the first expanding portion; a third expanding portion that expands and deploys father rearward than the first expanding portion; and a tether attached to the second expanding portion and the seat frame characterized in that a recessed part is formed by the second expanding portion and the third expanding portion protruding more forward toward the occupant side than the first expanding portion, and the tether bridges the recessed part, and opposing the first expanding portion via the recessed part; wherein, when the tether comes in contact with a shoulder of the occupant upon expansion and deployment of the airbag, the second expanding portion changes shape in a direction closer to a front part of the occupant.
An isolating decoupler comprising: a hub; a one-way clutch engaged with the hub; a pulley rotationally engaged with the hub on a first ball bearing and a second ball bearing; a spring operationally engaged between the one-way clutch and the pulley; and an inertia member engaged with the hub through an elastomeric member, the inertia member disposed within an envelope comprising the pulley and a first pulley support engaged with the first ball bearing and a second pulley support engaged with the second ball bearing, the inertia member moveable independently of the pulley. a hub; a one-way clutch engaged with the hub; a pulley rotationally engaged with the hub on a first ball bearing and a second ball bearing; a spring operationally engaged between the one-way clutch and the pulley; and an inertia member engaged with the hub through an elastomeric member, the inertia member disposed within an envelope comprising the pulley and a first pulley support engaged with the first ball bearing and a second pulley support engaged with the second ball bearing, the inertia member moveable independently of the pulley.
A liquid concentrate for extracting mycotoxins in a sample, comprising: at least one surfactant selected from sodium stearate, 4-(5-dodecyl) benzenesulfonate, sodium dodecyl sulfate, polysorbate 20, or trimethylhexadecyl ammonium chloride; and a combination of buffering salts comprising a salt selected from sodium chloride, sodium sulfate, sodium citrate, sodium acetate, sodium bromide, sodium iodide, potassium chloride, potassium acetate, potassium bromide, and potassium iodide and an acidic salt selected from sodium bicarbonate, sodium hydrosulfide, sodium bisulfate, monosodium phosphate, and disodium phosphate; wherein the surfactant is included in an amount of 2.4 to 7.2 wt% or wherein the surfactant is included in an amount of 5 to 15% by volume; and wherein the combination of buffering salts is present in a total amount of 1.4 to 4.2 wt. % or 6 to 18 wt. %. at least one surfactant selected from sodium stearate, 4-(5-dodecyl) benzenesulfonate, sodium dodecyl sulfate, polysorbate 20, or trimethylhexadecyl ammonium chloride; and a combination of buffering salts comprising a salt selected from sodium chloride, sodium sulfate, sodium citrate, sodium acetate, sodium bromide, sodium iodide, potassium chloride, potassium acetate, potassium bromide, and potassium iodide and an acidic salt selected from sodium bicarbonate, sodium hydrosulfide, sodium bisulfate, monosodium phosphate, and disodium phosphate; wherein the surfactant is included in an amount of 2.4 to 7.2 wt% or wherein the surfactant is included in an amount of 5 to 15% by volume; and wherein the combination of buffering salts is present in a total amount of 1.4 to 4.2 wt. % or 6 to 18 wt. %.
A valve (80; 80'; 80") for sealing the hub of a tear away sheath assembly defining a valve seat, the valve comprising a valve body (82; 82'; 82") shaped to fit within the valve seat, the valve body with a bisecting slot (83; 83'; 83") extending across a proximal surface (86; 86'; 86") of the valve body and terminating at a depth less than the thickness of the valve body such that the remaining portion of the valve body distally of the slot defines a bridge (84; 84'; 84") extending between opposed halves (82a, 82b; 82a', 82b'; 82a", 82b") of the valve body along a distal surface (94; 94'; 94") of the valve body such that the opposed halves of the valve body are connected to one another by the bridge such that the distal surface of the valve body is substantially continuous.
A method of purifying an anti-IL-6 receptor antibody from a sample containing said antibody and impurities, wherein the method comprises the following steps: (a) contacting the sample containing the antibody and the impurities with a protein A chromatography material under conditions such that the antibody binds to the resin and at least a portion of the impurities does not bind to the resin; (b) eluting the antibody from the Protein A chromatography material, in order to obtain an eluate; (c) loading the eluate of step (b) onto a first mixed mode chromatography material under conditions such that the antibody does not bind to the resin and at least a portion of the remaining impurities binds to the resin; (d) recovering the flowthrough containing the antibody under conditions such that said recovered flowthrough contains a lower level of impurities than the eluate of step (b), (e) loading the recovered flowthrough containing the antibody of step (d) onto a second mixed mode chromatography material under conditions such that the antibody does not bind to the resin and at least a portion of the remaining impurities binds to the resin; wherein the mixed mode chromatography material of step (e) is selected from hydroxyapatite-based ligand, hydroxyfluorapatite-based ligand, or fluorapatite-based ligand; and (f) recovering the flowthrough containing the antibody under conditions such that said recovered flowthrough contains a lower level of impurities than the recovered flowthrough of step (d). (a) contacting the sample containing the antibody and the impurities with a protein A chromatography material under conditions such that the antibody binds to the resin and at least a portion of the impurities does not bind to the resin; (b) eluting the antibody from the Protein A chromatography material, in order to obtain an eluate; (c) loading the eluate of step (b) onto a first mixed mode chromatography material under conditions such that the antibody does not bind to the resin and at least a portion of the remaining impurities binds to the resin; (d) recovering the flowthrough containing the antibody under conditions such that said recovered flowthrough contains a lower level of impurities than the eluate of step (b), (e) loading the recovered flowthrough containing the antibody of step (d) onto a second mixed mode chromatography material under conditions such that the antibody does not bind to the resin and at least a portion of the remaining impurities binds to the resin; wherein the mixed mode chromatography material of step (e) is selected from hydroxyapatite-based ligand, hydroxyfluorapatite-based ligand, or fluorapatite-based ligand; and (f) recovering the flowthrough containing the antibody under conditions such that said recovered flowthrough contains a lower level of impurities than the recovered flowthrough of step (d).
A pump for conveying a medium, in particular, a liquid or a solid-liquid mixture, comprising at least one drive, a first shaft and a second shaft driven by the first shaft in a rotating manner, which is connected to a pump element or is part of a pump element, wherein the first shaft is connected to the second shaft by means of at least one connection, wherein, during operation, the first shaft rotates at a first angle of rotation and the second shaft rotates at a second angle of rotation, each with reference to a common zero angle, characterized by a monitoring device which is designed to monitor the condition of the connection by detecting a phase shift occurring in the connection between the first angle of rotation and the second angle of rotation. wherein the first shaft is connected to the second shaft by means of at least one connection, wherein, during operation, the first shaft rotates at a first angle of rotation and the second shaft rotates at a second angle of rotation, each with reference to a common zero angle, characterized by a monitoring device which is designed to monitor the condition of the connection by detecting a phase shift occurring in the connection between the first angle of rotation and the second angle of rotation.