mhurhangee/ep-ind-claims huggingface dataset:
Method of sensing a carrier envelope characteristic of laser pulses having a pulse duration below 25 fs, including the steps of: - irradiating at least one emitter tip of an electron emitter device with the laser pulses, so that electrons are emitted from the at least one emitter tip, wherein the laser pulses are focused onto the at least one emitter tip, said at least one emitter tip having a tip radius equal or below 100 nm, - detecting an electron current of the emitted electrons using an electron collector device, and - generating a photoemission signal by the electron collector device, wherein the photoemission signal depends on the carrier envelope characteristic of the laser pulses, characterized in that - the laser pulses have a pulse energy below 200 pJ, and - the emitted electrons are subjected to an electrical field barrier created between the at least one emitter tip of the electron emitter device and the electron collector device. - irradiating at least one emitter tip of an electron emitter device with the laser pulses, so that electrons are emitted from the at least one emitter tip, wherein the laser pulses are focused onto the at least one emitter tip, said at least one emitter tip having a tip radius equal or below 100 nm, - detecting an electron current of the emitted electrons using an electron collector device, and - generating a photoemission signal by the electron collector device, wherein the photoemission signal depends on the carrier envelope characteristic of the laser pulses, - the laser pulses have a pulse energy below 200 pJ, and - the emitted electrons are subjected to an electrical field barrier created between the at least one emitter tip of the electron emitter device and the electron collector device.
A method of making a decorative article, such as a jewellery piece, the decorative article comprising a body having a decorative layer and an element set into the body, the method comprising: providing an element that is at least partially coated with a removable layer, setting the element into the body, coating the element and the body with the decorative layer, and removing the removable layer and the decorative layer from the element. providing an element that is at least partially coated with a removable layer, setting the element into the body, coating the element and the body with the decorative layer, and removing the removable layer and the decorative layer from the element.
A process for producing an aryl-alkyl (R-Ar) compound comprising: providing an electrolytic cell comprising an alkali ion conductive membrane positioned between an anolyte compartment configured with an anode and a catholyte compartment configured with a cathode, said alkali conductive membrane being configured to selectively transport alkali ions; introducing an anolyte solution into the anolyte compartment, wherein the anolyte solution comprises an alkali metal salt of an alkyl carboxylic acid (R-COOM) and an aryl compound in an anolyte solvent, wherein R is an alkyl hydrocarbon having a C 8 to C 24 hydrocarbon chain and M is an alkali metal selected from Li, Na, and K; electrolyzing the anolyte solution at the anode to decarboxylate the alkali metal salt of the alkyl carboxylic acid according to the following reaction: R-COOM→ R • + CO 2 + e - + M + wherein R • is an alkyl radical; reacting R • produced above with the aryl compound to produce an aryl-alkyl compound (R-Ar); and recovering the aryl-alkyl compound produced. providing an electrolytic cell comprising an alkali ion conductive membrane positioned between an anolyte compartment configured with an anode and a catholyte compartment configured with a cathode, said alkali conductive membrane being configured to selectively transport alkali ions; introducing an anolyte solution into the anolyte compartment, wherein the anolyte solution comprises an alkali metal salt of an alkyl carboxylic acid (R-COOM) and an aryl compound in an anolyte solvent, wherein R is an alkyl hydrocarbon having a C 8 to C 24 hydrocarbon chain and M is an alkali metal selected from Li, Na, and K; electrolyzing the anolyte solution at the anode to decarboxylate the alkali metal salt of the alkyl carboxylic acid according to the following reaction: R-COOM→ R • + CO 2 + e - + M + wherein R • is an alkyl radical; reacting R • produced above with the aryl compound to produce an aryl-alkyl compound (R-Ar); and recovering the aryl-alkyl compound produced. wherein R • is an alkyl radical; reacting R • produced above with the aryl compound to produce an aryl-alkyl compound (R-Ar); and recovering the aryl-alkyl compound produced.
Thermal flowmeter designed to determine and/or monitor the flow of a medium through a measuring tube with a first pin sleeve and at least a second pin sleeve, a first resistance thermometer and at least a second resistance thermometer, wherein at least the first resistance thermometer is designed as heatable, said resistance thermometers (6, 7) each having a first surface (8, 9) and at least a second surface (10, 11) situated opposite the first surface, said first pin sleeve surrounding the first resistance thermometer and said second pin sleeve surrounding the second resistance thermometer, and wherein said pin sleeves (4, 5) can be filled with a filling material, characterized in that in each case at least one spacer (12, 13) is arranged between the pin sleeve (4, 5) and the first surface (8, 9) of the resistance thermometer (6, 7) and in that the second surface (10, 11) of the resistance thermometer (6, 7) is at least partially covered by filling material.
A polypeptide which binds to low-density lipoprotein receptor-like protein 5, the polypeptide comprising an immunoglobulin single variable domain (ISVD) selected from the group consisting of ISVDs (i) to (iv): (i) an ISVD comprising the following complementarity-determining region sequences: CDR1: TYVMG (SEQ ID NO: 1) CDR2: AISWSGGSTYYADSVKG (SEQ ID NO:2) CDR3: SRGTSTPSRASGVSRYDY (SEQ ID NO:3), (ii) an ISVD comprising the following CDR sequences: CDR1: RYAVA (SEQ ID NO:4) CDR2: AITWSSGRIDYADSVKG (SEQ ID NO:5) CDR3: DRRPRSTGRSGTGSPSTYDY (SEQ ID NO:6), (iii) an ISVD comprising the following CDR sequences: CDR1: IGAMG (SEQ ID NO:7) CDR2: AVSSGGSTYYVDSVKG (SEQ ID NO:8) CDR3: ETGPYGPPKRDY (SEQ ID NO:9), and (iv) an ISVD comprising the following CDR sequences: CDR1: INAMG (SEQ ID NO: 10) CDR2: AVSSGGSTYYVDSVKG (SEQ ID NO:8) CDR3: ETGPYGPPKRDY (SEQ ID NO: 9). (i) an ISVD comprising the following complementarity-determining region sequences: CDR1: TYVMG (SEQ ID NO: 1) CDR2: AISWSGGSTYYADSVKG (SEQ ID NO:2) CDR3: SRGTSTPSRASGVSRYDY (SEQ ID NO:3), CDR1: TYVMG (SEQ ID NO: 1) CDR2: AISWSGGSTYYADSVKG (SEQ ID NO:2) CDR3: SRGTSTPSRASGVSRYDY (SEQ ID NO:3), (ii) an ISVD comprising the following CDR sequences: CDR1: RYAVA (SEQ ID NO:4) CDR2: AITWSSGRIDYADSVKG (SEQ ID NO:5) CDR3: DRRPRSTGRSGTGSPSTYDY (SEQ ID NO:6), CDR1: RYAVA (SEQ ID NO:4) CDR2: AITWSSGRIDYADSVKG (SEQ ID NO:5) CDR3: DRRPRSTGRSGTGSPSTYDY (SEQ ID NO:6), (iii) an ISVD comprising the following CDR sequences: CDR1: IGAMG (SEQ ID NO:7) CDR2: AVSSGGSTYYVDSVKG (SEQ ID NO:8) CDR3: ETGPYGPPKRDY (SEQ ID NO:9), and CDR1: IGAMG (SEQ ID NO:7) CDR2: AVSSGGSTYYVDSVKG (SEQ ID NO:8) CDR3: ETGPYGPPKRDY (SEQ ID NO:9), and (iv) an ISVD comprising the following CDR sequences: CDR1: INAMG (SEQ ID NO: 10) CDR2: AVSSGGSTYYVDSVKG (SEQ ID NO:8) CDR3: ETGPYGPPKRDY (SEQ ID NO: 9). CDR1: INAMG (SEQ ID NO: 10) CDR2: AVSSGGSTYYVDSVKG (SEQ ID NO:8) CDR3: ETGPYGPPKRDY (SEQ ID NO: 9).
A method for producing a bearing ring (10, 31, 32) of a rolling bearing, comprising the steps of: preparing a formed body constituted of hypereutectoid steel; forming an annular heated region heated to a temperature of at least an A 1 point on said formed body by relatively rotating an induction heating member arranged to face part of an annular region for becoming a rolling contact surface (11, 31A, 32A) of said bearing ring (10, 31, 32) in said formed body to induction-heat said formed body along the circumferential direction of said annular region; simultaneously cooling the whole of said heated region to a temperature of not more than an M s point; and a step of retaining the formed body in a state where the heating is stopped after completion of the step of forming an annular heated region and before the step of cooling the whole of said heated region, wherein said hypereutectoid steel is JIS-defined high carbon-chromium bearing steel. preparing a formed body constituted of hypereutectoid steel; forming an annular heated region heated to a temperature of at least an A 1 point on said formed body by relatively rotating an induction heating member arranged to face part of an annular region for becoming a rolling contact surface (11, 31A, 32A) of said bearing ring (10, 31, 32) in said formed body to induction-heat said formed body along the circumferential direction of said annular region; simultaneously cooling the whole of said heated region to a temperature of not more than an M s point; and a step of retaining the formed body in a state where the heating is stopped after completion of the step of forming an annular heated region and before the step of cooling the whole of said heated region, wherein said hypereutectoid steel is JIS-defined high carbon-chromium bearing steel.
The use of an activated colloidal silica component to increase the viscosity of a cement composition that comprises a cement in a method of well cementing, wherein the method of well cementing comprises: providing a cement composition that comprises a cement; providing a treatment fluid that comprises a colloidal silica component; providing an activator; combining the cement composition and the treatment fluid; introducing the cement composition and the treatment fluid into a portion of a well bore that penetrates a subterranean formation; and allowing the colloidal silica component to be activated by contacting the activator. providing a cement composition that comprises a cement; providing a treatment fluid that comprises a colloidal silica component; providing an activator; combining the cement composition and the treatment fluid; introducing the cement composition and the treatment fluid into a portion of a well bore that penetrates a subterranean formation; and allowing the colloidal silica component to be activated by contacting the activator.
Device for sealing the lower end surface of a door without a threshold, comprising - a hat-shaped or U-shaped guide profile to be fastened in a groove in the lower end surface of the door, - and also a sealing rail, which is guided vertically in the guide profile and which has a carrying profile and a sealing profile, which projects beyond the underside of the carrying profile, - and at least one means to improve the sound insulation, wherein the means is at least one strip and wherein the sealing profile has two side walls, which are arranged beneath the carrying profile, and a crosspiece, which connects the side walls, wherein the side walls, the crosspiece and the underside form a cavity, characterized in that a strip of the at least one strip is arranged in or at each side wall, wherein the two strips are connected to the sealing profile, and in that the strips have different physical properties in relation to immediate adjacent zones of the side walls or the crosspiece, wherein the two strips have different densities or cross-sectional surface areas or thicknesses in relation to the immediate adjacent zones. - a hat-shaped or U-shaped guide profile to be fastened in a groove in the lower end surface of the door, - and also a sealing rail, which is guided vertically in the guide profile and which has a carrying profile and a sealing profile, which projects beyond the underside of the carrying profile, - and at least one means to improve the sound insulation,
Electromechanical transducer (1a, 1b, 1c, 1d, 1e) comprising at least one disk shaped rotor or annular rotor, in and/or on which permanent magnets (21, 22) are arranged in a concentrically radiant manner, and having at least two stators (3, 3'), which are provided at both sides of the rotor, wherein the stators (3, 3') are at least partially of soft magnetic material; each stator (3, 3') comprises a first stator section with radially outer supporting bars for first magnetic active faces of the stator (3, 3') being opposite the rotor and a second stator section with radially inner supporting bars for second magnetic active faces of the stator (3, 3') being opposite the rotor; an annular winding groove for receiving at least one winding is provided between said stator sections (31, 32); the supporting bars (4, 5) are each arranged in an annular manner and each extend parallel to the rotor axis in the direction of the rotor; the magnetic active faces (42, 52) of the stators (3, 3') are end faces of projections (41, 51) which are equally spaced to one other and which protrude from the supporting bars (4, 5) in the direction of the rotor; the projections being respectively provided on the radially outer supporting bars are offset at an angle in relation to the projections being respectively provided on the radially inner supporting bars in respect of the projection spacing (a) by half a pitch, characterized in that in at least one of the stators (3, 3'), the projections which are provided on the radially outer supporting bars and/or the projections which are provided on the radially inner supporting bars overlap at least partially over the winding groove in radial direction (r) so that the winding groove is provided between stator backs (43, 53), which hold the supporting bars (4, 5), the supporting bars (4, 5) and the projections (41, 51), wherein an air gap is provided between the projections (41, 51) extending parallel to the circumferential direction of the rotor,, respectively, and the radius (r), in which the radially inner supporting bars are spaced to the rotation axis of the electromechanical transducer (1a, 1b, 1c, 1d, 1e), is larger than the radial extent (c) of the magnetic active faces (42, 52) of the stators (3, 3').
A multispecific antibody molecule comprising at least two binding domains each with a variable heavy region VH and a variable light region VL, wherein each binding domain is specific for an antigen and comprises 6 CDRs, characterised in that at least one binding domain comprises: a. a variable heavy region, VH A, having a framework comprising SEQ ID NO: 1 for FR1, SEQ ID NO: 3 for FR2, SEQ ID NO: 4 for FR3 and SEQ ID NO: 5 for FR4, with the proviso that CDRH3 in VH A is other than RYYSAMPFAY (SEQ ID NO: 129) and a variable light region, VL A, having a framework comprising SEQ ID NO: 6 for FR1, SEQ ID NO: 7 for FR2, SEQ ID NO: 8 for FR3, and SEQ ID NO: 10 for FR4; or b. a variable heavy region, VH A, having a framework comprising SEQ ID NO:16 for FR1, SEQ ID NO: 18 for FR2, SEQ ID NO: 19 for FR3 and SEQ ID NO: 20 for FR4, with the proviso that CDRH3 in VH A is other than RYYSAMPFAY (SEQ ID NO: 129) and a variable light region, VL A, having a framework comprising SEQ ID NO: 11 for FR1, SEQ ID NO: 12 for FR2, SEQ ID NO: 13 for FR3, and SEQ ID NO: 15 for FR4; and wherein the at least one variable region VH A and the at least one variable region VL A are present in a dsscFv, and wherein the multispecific antibody molecule is a Fab-dsscFv or Fab-(dsscFv) 2. a. a variable heavy region, VH A, having a framework comprising SEQ ID NO: 1 for FR1, SEQ ID NO: 3 for FR2, SEQ ID NO: 4 for FR3 and SEQ ID NO: 5 for FR4, with the proviso that CDRH3 in VH A is other than RYYSAMPFAY (SEQ ID NO: 129) and a variable light region, VL A, having a framework comprising SEQ ID NO: 6 for FR1, SEQ ID NO: 7 for FR2, SEQ ID NO: 8 for FR3, and SEQ ID NO: 10 for FR4; or b. a variable heavy region, VH A, having a framework comprising SEQ ID NO:16 for FR1, SEQ ID NO: 18 for FR2, SEQ ID NO: 19 for FR3 and SEQ ID NO: 20 for FR4, with the proviso that CDRH3 in VH A is other than RYYSAMPFAY (SEQ ID NO: 129) and a variable light region, VL A, having a framework comprising SEQ ID NO: 11 for FR1, SEQ ID NO: 12 for FR2, SEQ ID NO: 13 for FR3, and SEQ ID NO: 15 for FR4;
A composite hydrophilic porous membrane comprising a porous fluoropolymer support and a coating comprising a copolymer, wherein the copolymer comprises repeat units A and B, wherein A is of the formula: or and B is of the formula wherein: the copolymer is a block copolymer or a random copolymer; m and n, the number of repeat units A and B present in the copolymer, respectively, range from 1 to about 1000, provided the sum of m and n is equal to or greater than 10, wherein the copolymer is optionally crosslinked. the copolymer is a block copolymer or a random copolymer; m and n, the number of repeat units A and B present in the copolymer, respectively, range from 1 to about 1000, provided the sum of m and n is equal to or greater than 10, wherein the copolymer is optionally crosslinked.
A method for routing a Diameter message, the method comprising: at a Diameter routing node: receiving an initial Diameter request message; querying a Diameter routing controller, DRC, for routing information associated with the initial Diameter request message; receiving, from the DRC via a software defined network, SDN, related interface, Diameter routing information, wherein the Diameter routing information is determined using application layer information; storing the Diameter routing information in a local routing table;routing the initial Diameter request message using the Diameter routing information; receiving a second Diameter message associated with a same Diameter session as the initial Diameter request message; querying accessible Diameter routing information stored in the local routing table; and routing the second Diameter message using the Diameter routing information. receiving an initial Diameter request message; querying a Diameter routing controller, DRC, for routing information associated with the initial Diameter request message; receiving, from the DRC via a software defined network, SDN, related interface, Diameter routing information, wherein the Diameter routing information is determined using application layer information; storing the Diameter routing information in a local routing table;routing the initial Diameter request message using the Diameter routing information; receiving a second Diameter message associated with a same Diameter session as the initial Diameter request message; querying accessible Diameter routing information stored in the local routing table; and routing the second Diameter message using the Diameter routing information.
A clockwork movement including an energy source arranged to maintain the oscillations of a time base, via a going train, and to ensure the rotational driving of at least a first display wheel of a first indication relative to the time or the operation of the timepiece, in a first operating mode, a switching mechanism (18, 20, 32) arranged to alternately command the passage of said first display wheel from said first operating mode to a second operating mode and vice versa, in response to an action by a user, the nature of the rotational driving of said first display wheel being different between said first and second operating modes, characterized in that it comprises at least one rotating dial support as well as a locking organ arranged to cooperate at least indirectly with said dial support and keep it in a fixed position in said first operating mode, said switching mechanism (18, 20, 32) also being arranged to allow said dial support to rotate in said second operating mode.
High-pressure cleaning device comprising a housing and a high-pressure hose for connecting a spraying attachment, wherein the high-pressure cleaning device comprises a hose for connection to a water supply and wherein the high-pressure cleaning device comprises a storage device with a winding device for the hose for connection to the water supply, characterised in that the hose for connection to the water supply is a flat textile hose, and in that an automatic winding device for the flat textile hose is provided.
A hydrodynamic retarder system, in particular for a transmission of an automotive vehicle, comprising: a hydrodynamic retarder comprising a rotor and a stator and having an inlet and an outlet; a retarder proportional valve in fluid communication with the retarder outlet, the retarder proportional valve configured to control a retarder outlet pressure; and an electronic control unit; wherein the ECU is configured to determine a retarder outlet pressure set point based on at least one of or both of a current rotor speed and a desired brake torque; and wherein the ECU is configured to control the retarder proportional valve based on the retarder outlet pressure set point such that the retarder proportional valve provides a retarder outlet pressure within a range of the retarder outlet pressure set point; characterized in that it comprises: one or more vehicle sensors, wherein the ECU is configured to determine the outlet pressure set point based on or further based on one or more vehicle sensor signals provided by the one or more vehicle sensors; wherein the one or more vehicle sensors include at least one of or each of a temperature sensor for measuring a retarder fluid temperature, in particular at the retarder outlet, a pressure sensor for measuring a retarder fluid pressure, in particular at the retarder outlet, an inclination sensor for measuring an inclination angle, and a vehicle speed sensor for measuring a vehicle speed. a hydrodynamic retarder comprising a rotor and a stator and having an inlet and an outlet; a retarder proportional valve in fluid communication with the retarder outlet, the retarder proportional valve configured to control a retarder outlet pressure; and an electronic control unit; wherein the ECU is configured to determine a retarder outlet pressure set point based on at least one of or both of a current rotor speed and a desired brake torque; and wherein the ECU is configured to control the retarder proportional valve based on the retarder outlet pressure set point such that the retarder proportional valve provides a retarder outlet pressure within a range of the retarder outlet pressure set point; characterized in that it comprises: one or more vehicle sensors, wherein the ECU is configured to determine the outlet pressure set point based on or further based on one or more vehicle sensor signals provided by the one or more vehicle sensors; wherein the one or more vehicle sensors include at least one of or each of a temperature sensor for measuring a retarder fluid temperature, in particular at the retarder outlet, a pressure sensor for measuring a retarder fluid pressure, in particular at the retarder outlet, an inclination sensor for measuring an inclination angle, and a vehicle speed sensor for measuring a vehicle speed.
Egg yolk comprising at least 0.05 ng/ml antisecretory factor protein fragment with an amino acid sequence as disclosed in SEQ.ID.NO.1 and/or in SEQ.ID.NO.2.
Layer having isolated elements whose length is greater than their diameter and which are made of a resilient material and fastened to a substrate at a spacing from one another, characterised in that the elements are movable towards or away from one another, the elements can touch one another when they move towards one another, the outer surfaces of the elements are provided with a surface modification, the surface modification contains substances that are capable of forming reversible, non-covalent bonds.