mhurhangee/ep-ind-claims huggingface dataset:
A multifunctional device comprising a frame unit and a first function unit, wherein the frame unit comprises a first frame portion and a second frame portion, wherein the first and second frame portions (21, 22) are connected and are held spaced apart from each other via at least a first transverse portion, wherein the first frame portion has a first base portion and the second frame portion has a second base portion, wherein rolling members are rotatably mounted on the base portions (25, 26), wherein the first frame portion, the second frame portion and the first transverse portion form a first holding section, and wherein the first function unit can be positively fixed or is fixed to the first retaining section, wherein a second transverse portion is fixed to the first and second frame portions (21, 22) and is spaced from the first transverse portion, said second transverse portion being located between said first transverse portion and said base portions (25, 26), wherein the first frame portion, the second frame portion and the second transverse portion form a second holding section, wherein a second function unit is provided which is fixable or fixed to the second holding section, wherein said first and second frame portions (21, 22) extend substantially parallel to a vertical plane, said first transverse portion extending substantially parallel to a horizontal plane, wherein the horizontal plane is perpendicular to the vertical plane, wherein a projection of the frame unit on the horizontal plane results in a substantially U-shaped contour, wherein the first and second frame portions (21, 22) form the legs of the U-shaped contour and the transverse portions (23, 24) form the transverse section of the U-shaped contour connecting the legs, characterised in that a positive engagement is effective between the first function unit and the first holding section in three directions parallel to the horizontal plane and in a downwardly pointing vertical direction which runs parallel to a vertical plane, and in that the first function unit can be removed from the first holding section A in the other directions.
Method for manufacturing a tub section for a washing machine having a plastic tub in which a rotating drum can be internally housed, whose rotation axis rests on bearings provided on the internal face of a bearing hub of a metallic material, wherein the tub is radially mounted onto the external surface of the bearing hub by a plastic injection process and, between the external surface of the bearing hub and the tub, it has a plastic material cover (17, 46a, 46b), characterized in that the method comprises the steps of - moulding the plastic material cover, - mounting the cover fitted onto the external surface of the bearing hub, thereby forming a hub set, - injecting the plastic tub onto the hub set. - moulding the plastic material cover, - mounting the cover fitted onto the external surface of the bearing hub, thereby forming a hub set, - injecting the plastic tub onto the hub set.
A detergent composition comprising: a sorbent carrier; and a sorbed component including - an acid which includes an alpha hydroxy acid, - a surfactant and - an acid precursor wherein the sorbed component is sorbed by the sorbent carrier and wherein the sorbed component is in aqueous form and wherein the detergent composition includes, by total weight percent (wt%) of the detergent composition, 5 to 25 wt% water. a sorbent carrier; and a sorbed component including - an acid which includes an alpha hydroxy acid, - a surfactant and - an acid precursor - an acid which includes an alpha hydroxy acid, - a surfactant and - an acid precursor wherein the sorbed component is sorbed by the sorbent carrier and wherein the sorbed component is in aqueous form and wherein the detergent composition includes, by total weight percent (wt%) of the detergent composition, 5 to 25 wt% water.
A method for generating a gaseous mixture by means of an apparatus comprising at least two inputs, of which the first is an input for a carrier gas and the second is an input for a pollutant (IN2, IN3) and at least one gas output (OUT MEL), a system of solenoid valves (E3, E4, E6, E21, E22, E23, E24, E25, E31, E32, E33, E34, E35), a microfluidic circuit and a mixing cell (C MEL), the microfluidic circuit comprising a sub-circuit that can be isolated or connected with the mixing cell by means of the system of solenoid valves, characterised in that it comprises the following steps of: a) cleaning the microfluidic circuit by pure air received on the first input; b) forming a first air stream (TRAIN1) with a gas received on the first input of the apparatus, sending this first air stream to the mixing cell and adding a pollutant in the sub-circuit isolated from the mixing cell from at least one pollutant received on the second input of the apparatus; c) opening the sub-circuit by the system of solenoid valves, so that the sub-circuit is linked to the first input of the apparatus supplied with gas and to the input (IN_MEL) of the mixing cell, the opening of the sub-circuit causing a second air stream (TRAIN2) to be sent to the mixing cell; steps b) and c) being repeated until the desired quantity of gaseous mixture is obtained at the output (OUT_MEL) of the mixing cell. a) cleaning the microfluidic circuit by pure air received on the first input; b) forming a first air stream (TRAIN1) with a gas received on the first input of the apparatus, sending this first air stream to the mixing cell and adding a pollutant in the sub-circuit isolated from the mixing cell from at least one pollutant received on the second input of the apparatus; c) opening the sub-circuit by the system of solenoid valves, so that the sub-circuit is linked to the first input of the apparatus supplied with gas and to the input (IN_MEL) of the mixing cell, the opening of the sub-circuit causing a second air stream (TRAIN2) to be sent to the mixing cell; steps b) and c) being repeated until the desired quantity of gaseous mixture is obtained at the output (OUT_MEL) of the mixing cell.
A nonwoven comprising fibers having a core-in-sheath structure comprising a core part and a sheath part; the core part comprising a thermoplastic elastomer; and the sheath part comprising a polyolefin of a lower shear viscosity than the thermoplastic elastomer at a specific temperature selected in a temperature range of greater than or equal to 220°C to less than or equal to 260°C, and a melt flow rate of the polyolefin being greater than or equal to 100 g/10 minutes, wherein the shear viscosity is measured according to the method specified in Measurement of Shear Viscosity section of the specification, and the melt flow rate is measured according to ASTM D 1238 using a measurement temperature of 190 °C and a measurement load of 2.16 kg.
String fastener for the guitar body of an electric guitar, comprising a bridge, carrying one saddle per string located at the upper side of the bridge, across which saddle a string is arranged to run, wherein one saddle per string is fastened to the upper side of the bridge, wherein a downwards directed, pivoted lever is arranged at each saddle, at which lever one end of the string is arranged to be fastened, wherein a tuning spring, which is a tension spring, is fastened with one of its ends to the lever and with its other end directly or indirectly to the guitar body, which tuning spring is configured to maintain a constant pulling force in a string, and which string fastener is provided with a so-called vibrato arm, which arm when activated results in that the said bridge is angled towards the guitar body, which vibrato arm is pivotally fastened to the bridge and runs through the bridge, characterised in that a fastening means is arranged to maintain each of said levers in its respective position relative to the bridge in a normal play state and during vibrato, and in that a release device is arranged to affect the fastening means to release the said levers whereby the tuning springs will cause the original tensile stress in the respective string to be restored.
Device for guiding containers along an arcuate container transport path, wherein the device has a concavely shaped guide region (20a, 20b), wherein a guide belt is provided, which forms a resting region for the containers in the concavely shaped guide region (20a, 20b), in order to guide these laterally along the arcuate container transport path, and that the guide belt is driven such as to rotate endlessly, in order to apply feed forces to the containers in the transporting direction, and wherein the guide belt comprises a base region (21.1) configured in the form of a belt, and a contact region (21.2) projecting from this, characterised in that the base region (21.1) projects on the upper side and/or the under side in relation to the contact region (21.2), in order to form a guide edge (21.4).
A method for dyeing human hair, comprising the following steps in the order given A) mixing a first component with a second component to obtain a first mixture, B) mixing the mixture with a third component to obtain a second mixture, C) applying the mixture to the hair, D) allowing the mixture to act for a period of 30 seconds to 45 minutes, E) rinsing the mixture out of the hair, wherein - the first component is a dye preparation which contains at least one oxidation dye precursor, and - the second component is a dye thinner which itself contains no oxidation dye precursors and no oxidizing agent, and - based on the total weight of the second component - contains one or more fat constituents in a total amount of 5.0 to 70.0 wt.% and one or more acids in a total amount of 0.5 to 15.0 wt.%, and - the third component is an oxidizing agent preparation which contains at least one oxidizing agent. A) mixing a first component with a second component to obtain a first mixture, B) mixing the mixture with a third component to obtain a second mixture, C) applying the mixture to the hair, D) allowing the mixture to act for a period of 30 seconds to 45 minutes, E) rinsing the mixture out of the hair, wherein - the first component is a dye preparation which contains at least one oxidation dye precursor, and - the second component is a dye thinner which itself contains no oxidation dye precursors and no oxidizing agent, and - based on the total weight of the second component - contains one or more fat constituents in a total amount of 5.0 to 70.0 wt.% and one or more acids in a total amount of 0.5 to 15.0 wt.%, and - the third component is an oxidizing agent preparation which contains at least one oxidizing agent. - the first component is a dye preparation which contains at least one oxidation dye precursor, and - the second component is a dye thinner which itself contains no oxidation dye precursors and no oxidizing agent, and - based on the total weight of the second component - contains one or more fat constituents in a total amount of 5.0 to 70.0 wt.% and one or more acids in a total amount of 0.5 to 15.0 wt.%, and - the third component is an oxidizing agent preparation which contains at least one oxidizing agent.
A bevel friction ring gear mechanism, consisting of at least two part gear mechanisms (11, 21) in the form of bevel friction ring gear mechanisms having a common cone and in each case one further cone (12, 22), which part gear mechanisms have a first adjustment device for a friction ring of the first part gear mechanism and a second adjustment device for a friction ring of the second part gear mechanism, the further cone of the first part gear mechanism being operatively connected to a shaft by means of a first gear mechanism, and the further cone of the second part gear mechanism likewise being operatively connected to said shaft by means of a second gear mechanism, the first and second gear mechanisms (13, 23) having an identical gear ratio and/or the two further cones (12, 22) being operatively connected to the common shaft in a speed-synchronous manner, and the bevel friction ring gear mechanism having a control device for controlling an axial position of the friction rings (14, 24), characterised in that the control device has at least one first part control device having a first reference variable and a second part control device having a second reference variable separate from the first reference variable, wherein the first part gear mechanism has the first part control device for controlling the position of the friction ring of the first part gear mechanism, and the second part gear mechanism has at least the second part control device for controlling the position of the friction ring of the second part gear mechanism.
A process for coating surfaces of metallic substrates, with an organic, anionically, cationically or/and radically curable anticorrosive composition, characterised in that the anticorrosive composition is a dispersion or solution which contains up to 3 wt.% water or/and up to 3 wt.% organic solvent and also reactive thinners, which contains at least two components selected from the group of monomers, oligomers and polymers with a total content in the range from 50 to 95 wt.%, which are at least partially anionically, cationically or/and radically curable, wherein a content of at least one monofunctional monomer or/and oligomer in the range from 1 to 58 wt.% with a content of isobornyl acrylate or/and isobornyl methacrylate and also a content of at least one base polymer based on acrylate, epoxide, methacrylate, polyester, polyurethane or/and copolymers thereof in the range from 5 to 50 wt.% are included herein, wherein the anticorrosive composition contains, moreover, at least one photoinitiator for anionic, cationic or/and radical cross-linking with a content in the range from 0.5 to 22 wt.%, if electron beam radiation is not used, a first organic corrosion inhibitor and also a total content of additives in the range from 0.05 to 22 wt.%, relative in each case to the solids content in wt.%, wherein the anticorrosive composition is applied to the metallic surfaces in a wet film thickness in the range from 0.4 to 25 μm and is then anionically, cationically or/and radically cured to form an anticorrosive coating, wherein the anticorrosive coating has a dry film thickness in the range from 0.4 to 20 μm and a resistance to chemicals of over 40 MEK cycles, determined in the MEK test in accordance with ECCA standard T11 with methyl ethyl ketone.
A method of synthesizing a chimeric protein that is a monomer-dimer hybrid comprising a first and a second polypeptide chain, wherein said first chain comprises a biologically active molecule and at least a portion of an immunoglobulin constant region which is an FcRn binding partner, and said second chain comprises at least a portion of an immunoglobulin constant region which is an FcRn binding partner without any biologically active molecule or variable region of an immunoglobulin, the method comprising: a) recombinantly expressing a fusion protein comprising: (i) at least a portion of an immunoglobulin constant region which is an FcRn binding partner; and (ii) a splicing protein which forms a C terminus thioester on the portion of the immunoglobulin constant region of (i) when expressed; b) adding a thiol cofactor to the fusion protein of a); and c) adding at least one biologically active molecule having an N-terminal cysteine to link the biologically active molecule to the C terminus of the portion of the immunoglobulin constant region, wherein said splicing protein is an intein, and wherein said biologically active molecule is a polypeptide selected from the group consisting of EPO, interferon, a viral fusion inhibitor, and a clotting factor. a) recombinantly expressing a fusion protein comprising: (i) at least a portion of an immunoglobulin constant region which is an FcRn binding partner; and (ii) a splicing protein which forms a C terminus thioester on the portion of the immunoglobulin constant region of (i) when expressed; b) adding a thiol cofactor to the fusion protein of a); and c) adding at least one biologically active molecule having an N-terminal cysteine to link the biologically active molecule to the C terminus of the portion of the immunoglobulin constant region,
A switching system (1; 1') for breaking a current, comprising: a contact arrangement having a first terminal and a second terminal, a resonance circuit connectable across the contact arrangement, a first switch connected to the resonance circuit and to the first terminal, wherein the first switch is switchable between an open state and a closed state, wherein in the closed state the first switch is arranged to enable current to flow through the resonance circuit in a first flow direction and into the contact arrangement in a direction opposite to a contact arrangement arc current flow direction, a second switch connected to the resonance circuit and to the second terminal of the contact arrangement, wherein the second switch is switchable between an open state and a closed state, wherein in the closed state the second switch is arranged to enable current to flow through the resonance circuit in a second flow direction opposite to the first flow direction, and a control system (7; 7'), characterised in that the control system (7; 7') is arranged to alternatingly first set the first switch, and then the second switch, first in the closed state and then in the open state upon a current breaking operation, until a current pulse, emanating from energy supplied by a contact arrangement arc current, flowing through the resonance circuit and into the contact arrangement reaches an amplitude which is equal to or greater than a magnitude of the contact arrangement arc current. a contact arrangement having a first terminal and a second terminal, a resonance circuit connectable across the contact arrangement, a first switch connected to the resonance circuit and to the first terminal, wherein the first switch is switchable between an open state and a closed state, wherein in the closed state the first switch is arranged to enable current to flow through the resonance circuit in a first flow direction and into the contact arrangement in a direction opposite to a contact arrangement arc current flow direction, a second switch connected to the resonance circuit and to the second terminal of the contact arrangement, wherein the second switch is switchable between an open state and a closed state, wherein in the closed state the second switch is arranged to enable current to flow through the resonance circuit in a second flow direction opposite to the first flow direction, and a control system (7; 7'), characterised in that the control system (7; 7') is arranged to alternatingly first set the first switch, and then the second switch, first in the closed state and then in the open state upon a current breaking operation, until a current pulse, emanating from energy supplied by a contact arrangement arc current, flowing through the resonance circuit and into the contact arrangement reaches an amplitude which is equal to or greater than a magnitude of the contact arrangement arc current.
Tool for a distal end or on a distal end of a shank of a medical instrument, said tool having: a main body; a jaw part, which is pivotable relative to the main body about a pivot axis; a bearing, which defines the pivot axis, wherein the bearing comprises two journals (63, 73), which are spaced apart from each other and each have a jacket surface (64, 74) that is rotationally symmetrical with respect to the pivot axis, characterized in that the jaw part comprises two journal components (60, 70), each of them with one of the journals (63, 73). a main body; a jaw part, which is pivotable relative to the main body about a pivot axis; a bearing, which defines the pivot axis, wherein the bearing comprises two journals (63, 73), which are spaced apart from each other and each have a jacket surface (64, 74) that is rotationally symmetrical with respect to the pivot axis, characterized in that the jaw part comprises two journal components (60, 70), each of them with one of the journals (63, 73).
A computer-implemented method comprising: receiving, from a first microphone (204a, 204b) disposed on an in-ear audio device (110a, 110b), first audio data corresponding to a first representation of first audio; receiving, from a second microphone (205a, 205b) disposed on the in-ear audio device (110a, 110b), second audio data corresponding to a second representation of the first audio; receiving, from a third microphone (206a, 206b) disposed on an inner-lobe insert (208a, 208b) of the in-ear audio device (110a, 110b), third audio data corresponding to a third representation of the first audio; generating first output audio data by combining the first audio data with at least a portion of the third audio data; generating reference audio data by subtracting at least a portion of the first audio data and at least a portion of the third audio data from the second audio data; and generating second output audio data by subtracting at least a portion of the reference audio data from the first output audio data. receiving, from a first microphone (204a, 204b) disposed on an in-ear audio device (110a, 110b), first audio data corresponding to a first representation of first audio; receiving, from a second microphone (205a, 205b) disposed on the in-ear audio device (110a, 110b), second audio data corresponding to a second representation of the first audio; receiving, from a third microphone (206a, 206b) disposed on an inner-lobe insert (208a, 208b) of the in-ear audio device (110a, 110b), third audio data corresponding to a third representation of the first audio; generating first output audio data by combining the first audio data with at least a portion of the third audio data; generating reference audio data by subtracting at least a portion of the first audio data and at least a portion of the third audio data from the second audio data; and generating second output audio data by subtracting at least a portion of the reference audio data from the first output audio data.