mhurhangee/ep-ind-claims huggingface dataset:
A process for the manufacture of a fermented milk, namely a stirred or drinking fermented milk or fresh cheese, comprising after a fermentation step a smoothing step wherein said smoothing step is performed by a rotor stator mixer comprising a ring shaped rotor head and a ring shaped stator head, and wherein a radial gap between rings of the stator and the rotor is between 0.5 mm and 2 mm, and preferably equal to 0.5 mm, each ring of the rotor and of the stator being provided with radial slots having a given width, said process comprising adjusting the rotational speed of the rotor to adjust the peripheral velocity.
A casting mold half, preferably for a die casting mold, comprising - a hollow core receptacle and - a hollow core inserted into the hollow core receptacle, having a base body and a core cylinder body extending essentially axially from the latter, characterized in that - the hollow core is embodied as a reusably removable hollow core which is removably attachable to the casting mold half on the mold cavity side, with the base body ahead, without dismantling and without disassembly of the casting mold half. - a hollow core receptacle and - a hollow core inserted into the hollow core receptacle, having a base body and a core cylinder body extending essentially axially from the latter, characterized in that - the hollow core is embodied as a reusably removable hollow core which is removably attachable to the casting mold half on the mold cavity side, with the base body ahead, without dismantling and without disassembly of the casting mold half.
A method of storing spherical pieces of ice in a refrigerated space, the method comprising: providing an ice maker configured to produce a plurality of spherical pieces of ice, each spherical piece of ice having a substantially spherical outer surface defining a first radius; characterised by providing a tray having a plurality of upwardly opening ice support cavities, wherein each ice support cavity has a concave surface defining a portion of a sphere having a second radius that is substantially equal to the first radius whereby spherical pieces of ice formed by the ice maker fit closely in the ice support cavities; and positioning the tray in the refrigerated space at a predefined location relative to the ice maker; transporting spherical pieces of ice from the ice maker to the ice support cavities; positioning the spherical pieces of ice in the ice support cavities. providing an ice maker configured to produce a plurality of spherical pieces of ice, each spherical piece of ice having a substantially spherical outer surface defining a first radius; characterised by providing a tray having a plurality of upwardly opening ice support cavities, wherein each ice support cavity has a concave surface defining a portion of a sphere having a second radius that is substantially equal to the first radius whereby spherical pieces of ice formed by the ice maker fit closely in the ice support cavities; and positioning the tray in the refrigerated space at a predefined location relative to the ice maker; transporting spherical pieces of ice from the ice maker to the ice support cavities; positioning the spherical pieces of ice in the ice support cavities.
A topical pharmaceutical formulation comprising: a) 5-(4-cyanophenoxy)-1,3-dihydro-1-hydroxy-2,1-benzoxaborole, a pharmaceutically acceptable salt, or a hydrate or a solvate thereof; b) from about 5% (w/w) to about 15% (w/w) propylene glycol; c) butylated hydroxytoluene; d) edetate calcium disodium; e) mono- and di- glycerides; f) paraffin wax; and g) white petrolatum. a) 5-(4-cyanophenoxy)-1,3-dihydro-1-hydroxy-2,1-benzoxaborole, a pharmaceutically acceptable salt, or a hydrate or a solvate thereof; b) from about 5% (w/w) to about 15% (w/w) propylene glycol; c) butylated hydroxytoluene; d) edetate calcium disodium; e) mono- and di- glycerides; f) paraffin wax; and g) white petrolatum.
A sample-handling-module cooperating with a load receiver of a weighing device for calibrating a multi-channel liquid handling device, said sample-handling-module comprising: a. a holding device comprising holders arranged sequentially and spaced apart equally from each other and configured to receive receptacles; characterized by b. a supporting device comprising an array of tines providing lateral support to the holders when said holders dismount from the load receiver; and c. an actuating device operatively connected to the holders through the array of tines, wherein the actuating device is operable to mount the holders on to the load receiver, one at a time, by disengaging the corresponding tines supporting said holder. a. a holding device comprising holders arranged sequentially and spaced apart equally from each other and configured to receive receptacles; characterized by b. a supporting device comprising an array of tines providing lateral support to the holders when said holders dismount from the load receiver; and c. an actuating device operatively connected to the holders through the array of tines, wherein the actuating device is operable to mount the holders on to the load receiver, one at a time, by disengaging the corresponding tines supporting said holder.
A process for mounting a printing plate having a first periphery on a carrier sheet having a second periphery that surrounds the first periphery, the process comprising the sequential steps of: a. including registration indicia (202a, 202d) on the printing plate; b. placing the carrier sheet on a cutting table of a cutting system; c. mounting the printing plate to the carrier sheet; d. detecting with the cutting system absolute coordinates of the registration indicia (202a, 202d) on the printing plate; and e. cutting the carrier sheet along a cut line having absolute coordinates generated based upon the detected absolute coordinates of the printing plate registration indicia (202a, 202d). a. including registration indicia (202a, 202d) on the printing plate; b. placing the carrier sheet on a cutting table of a cutting system; c. mounting the printing plate to the carrier sheet; d. detecting with the cutting system absolute coordinates of the registration indicia (202a, 202d) on the printing plate; and e. cutting the carrier sheet along a cut line having absolute coordinates generated based upon the detected absolute coordinates of the printing plate registration indicia (202a, 202d).
The use of eslicarbazepine or eslicarbazepine acetate in the manufacture of a medicament for treating an intractable epilepsy condition in circumstances where the patient to be treated has previously been treated for epilepsy with a medicament that is a substrate for P-glycoprotein or Multiple Resistant Proteins.
Process for producing an arabinoxylo-oligosaccharide composition from flour comprising the steps of: A. extracting and isolating an endosperm arabinoxylan fraction from flour; B. optionally removing starch and proteins from the obtained product of step A; C. optionally treatment of the endosperm arabinoxylan of step A or product of step B with arabinofuranosidases, preferably one able to remove α-(1→3)-linked L-arabinofuranosyl at double substituted β-(1→4)-linked D-xylopyranosyl units (dXyl); D. adding an arabinoxylanase to the obtained product of step A, step B or step C; and E. drying the obtained material of step D. A. extracting and isolating an endosperm arabinoxylan fraction from flour; B. optionally removing starch and proteins from the obtained product of step A; C. optionally treatment of the endosperm arabinoxylan of step A or product of step B with arabinofuranosidases, preferably one able to remove α-(1→3)-linked L-arabinofuranosyl at double substituted β-(1→4)-linked D-xylopyranosyl units (dXyl); D. adding an arabinoxylanase to the obtained product of step A, step B or step C; and E. drying the obtained material of step D.
A method comprising: learning, using a short range wireless communication functionality as a first source, of a presence of one or more second mobile communication devices that are within a first distance of a first mobile communication device, wherein the first mobile communication device is adapted to transmit/receive cellular telephone signals to/from a cellular telephone base station located at a second distance from the first mobile communication device, said second distance larger than said first distance; storing on the first mobile communication device first information, based on said learning step, indicative of whether each of the second mobile communication devices is within a predefined proximity range of the first mobile communication device; determining and storing on the first mobile communication device second information indicative of whether an owner of each of the second mobile communication devices belongs to a class of users; characterized in that the method further comprises: collecting, on the first mobile communication device, context information from sources other than the first source; and using the first and second information and the context information to determine how to change a behavior of the first mobile communication device. learning, using a short range wireless communication functionality as a first source, of a presence of one or more second mobile communication devices that are within a first distance of a first mobile communication device, wherein the first mobile communication device is adapted to transmit/receive cellular telephone signals to/from a cellular telephone base station located at a second distance from the first mobile communication device, said second distance larger than said first distance; storing on the first mobile communication device first information, based on said learning step, indicative of whether each of the second mobile communication devices is within a predefined proximity range of the first mobile communication device; determining and storing on the first mobile communication device second information indicative of whether an owner of each of the second mobile communication devices belongs to a class of users; characterized in that the method further comprises: collecting, on the first mobile communication device, context information from sources other than the first source; and using the first and second information and the context information to determine how to change a behavior of the first mobile communication device.
A woven fabric, wherein pile weft yarns, auxiliary weft yarns, and warp yarns are woven in the front face and back face of the fabric according to a pattern, and wherein at least one of the pile weft yarns and/or auxiliary weft yarns comprises synthetic elastomeric yarn and at least one of the same comprises cotton core-spun elastomeric yarn, and wherein the number of bypassed warp yarns with which the pile weft yarn is not connected is at least 11, at most sixteen; that the pile weft yarn, once it passes the warp yarn, is connected with the fabric by means of loop connection point, characterized in that; - the pile weft yarns are cotton core-spun elastomeric based pile weft yarns that are used in the fabric pattern and are positioned at the back face of the fabric under the warp yarns. - the pile weft yarns are cotton core-spun elastomeric based pile weft yarns that are used in the fabric pattern and are positioned at the back face of the fabric under the warp yarns.
A User Equipment, UE, for a communication system in which resources can be dynamically allocated at each transmission time interval on a downlink control channel, the UE comprising: means for receiving control information, wherein the control information includes data within a Modulation and Coding Scheme, MCS field configured to be used to determine an MCS, and includes data within a resource block assignment field; and means for activating persistent scheduling in a case where the data within the MCS field is set to a specific bit pattern. means for receiving control information, wherein the control information includes data within a Modulation and Coding Scheme, MCS field configured to be used to determine an MCS, and includes data within a resource block assignment field; and means for activating persistent scheduling in a case where the data within the MCS field is set to a specific bit pattern.
Ethylene copolymer obtained by radical polymerisation through a high-pressure process comprising: (i) ≥ 78.0 and ≤ 99.99 mole% of recurring units derived from ethylene; (ii) ≥ 0.01 and ≤ 22.0 mole% of recurring units derived from comonomer A according to Formula: wherein R1 is composed of a saturated aliphatic moiety comprising 5-40 carbon atoms or R1 is composed of a saturated aliphatic moiety and consists of hydrogen atoms and 5-40 carbon atoms; R2 is selected from -H or -CH 3; R3 is selected from -O-, - - - or - -O-; n = 0 or 1, wherein the ethylene copolymer comprises (iii) > 0 and ≤ 2.00 mole% of recurring units derived from comonomer B according to Formula: wherein R4 is a moiety comprising 1-30 carbon atoms; each of R2 is individually selected from -H or -CH 3; each of R3 is individually selected from -O-, - - - or - -O-; n = 0 or 1; p = 0 or 1; and m ≥ 1 and ≤ 10. (i) ≥ 78.0 and ≤ 99.99 mole% of recurring units derived from ethylene; (ii) ≥ 0.01 and ≤ 22.0 mole% of recurring units derived from comonomer A according to Formula: wherein R1 is composed of a saturated aliphatic moiety comprising 5-40 carbon atoms or R1 is composed of a saturated aliphatic moiety and consists of hydrogen atoms and 5-40 carbon atoms; R2 is selected from -H or -CH 3; R3 is selected from -O-, - - - or - -O-; n = 0 or 1, wherein the ethylene copolymer comprises R1 is composed of a saturated aliphatic moiety comprising 5-40 carbon atoms or R1 is composed of a saturated aliphatic moiety and consists of hydrogen atoms and 5-40 carbon atoms; R2 is selected from -H or -CH 3; R3 is selected from -O-, - - - or - -O-; n = 0 or 1, (iii) > 0 and ≤ 2.00 mole% of recurring units derived from comonomer B according to Formula: wherein R4 is a moiety comprising 1-30 carbon atoms; each of R2 is individually selected from -H or -CH 3; each of R3 is individually selected from -O-, - - - or - -O-; n = 0 or 1; p = 0 or 1; and m ≥ 1 and ≤ 10. R4 is a moiety comprising 1-30 carbon atoms; each of R2 is individually selected from -H or -CH 3; each of R3 is individually selected from -O-, - - - or - -O-; n = 0 or 1; p = 0 or 1; and m ≥ 1 and ≤ 10.
Method for producing a spring strut dome having a dome element as a separate part of the vehicle body, wherein a semifinished product is reshaped to the shape of the dome element by means of massive forming, structures which increase the stiffness additionally being introduced into the dome element by way of the massive forming, wherein regions with an increased wall thickness are introduced in order to increase the stiffness, characterized in that the semifinished product is reshaped by way of rolling, forging, upset-forging and/or pressing which make a change in the cross-sectional shape and a reduction and increase in the wall thickness of the semifinished product possible.
A product gripper for picking up a product comprising at least a first part portion and a second part portion, said product gripper comprising at least a first pick-up element having a first pick-up surface for picking up the first part portion, at least a second pick-up element having a second pick-up surface for picking up the second part portion, a drive means to move the pick-up elements (10, 12) between a first position, in which the first pick-up surface and the second pick-up surface are arranged on mutually oppositely disposed sides of the product to be picked up, and a second position in which the pick-up surfaces (11, 13) are at least partly located beneath the part portions (14, 16), wherein the first pick-up element is designed such that the first pick-up surface with the first part portion is movable, in particular raisable and/or lowerable, substantially perpendicular relative to the second pick-up surface and/or is arranged offset from the second pick-up surface in this direction, characterized in that the sections of the pick-up elements (10, 12) which have the pick-up surfaces (11, 13) are designed with different thicknesses, and/or in that the drive means is designed such that the first pick-up surface is movable by a distance in a direction substantially perpendicular to the first pick-up surface, in particular with the distance corresponding to at least a height or a thickness of the second part portion. at least a first pick-up element having a first pick-up surface for picking up the first part portion, at least a second pick-up element having a second pick-up surface for picking up the second part portion, a drive means to move the pick-up elements (10, 12) between a first position, in which the first pick-up surface and the second pick-up surface are arranged on mutually oppositely disposed sides of the product to be picked up, and a second position in which the pick-up surfaces (11, 13) are at least partly located beneath the part portions (14, 16), wherein the first pick-up element is designed such that the first pick-up surface with the first part portion is movable, in particular raisable and/or lowerable, substantially perpendicular relative to the second pick-up surface and/or is arranged offset from the second pick-up surface in this direction, characterized in that the sections of the pick-up elements (10, 12) which have the pick-up surfaces (11, 13) are designed with different thicknesses, and/or in that the drive means is designed such that the first pick-up surface is movable by a distance in a direction substantially perpendicular to the first pick-up surface, in particular with the distance corresponding to at least a height or a thickness of the second part portion.
A sealing profile to be embedded in a moulded part of a curable material, in particular a concrete or plastic moulded part, wherein the sealing profile extends strand-like in a longitudinal direction and has at least one anchoring foot for anchoring the sealing profile in the moulded part, characterised in that the at least one anchoring foot has recesses, reductions in cross-section, thickenings in cross-section, and/or projections, which extend discontinuously in the longitudinal direction of the sealing profile.
A computer-implemented system comprising: a computer-readable medium that stores instructions; and at least one processor configured to execute the instructions to: receive a request for map data, the map data being associated with a geographic area; determine a viewport for displaying the map data on a user device; calculate a scale distance (204, 304) based on a measurement from the center of a first edge (206, 306) to the center of a second edge (208, 308) of the determined viewport; determine a scale orientation based on the measurement from the center of the first edge to the center of the second edge of the determined viewport; and provide, to the user device, the requested map data and instructions for displaying the map data, wherein the instructions include instructions to display a graphical element (202, 302) specifying the scale distance and the scale orientation in at least one of a horizontal or vertical direction. a computer-readable medium that stores instructions; and at least one processor configured to execute the instructions to: receive a request for map data, the map data being associated with a geographic area; determine a viewport for displaying the map data on a user device; calculate a scale distance (204, 304) based on a measurement from the center of a first edge (206, 306) to the center of a second edge (208, 308) of the determined viewport; determine a scale orientation based on the measurement from the center of the first edge to the center of the second edge of the determined viewport; and provide, to the user device, the requested map data and instructions for displaying the map data, wherein the instructions include instructions to display a graphical element (202, 302) specifying the scale distance and the scale orientation in at least one of a horizontal or vertical direction. receive a request for map data, the map data being associated with a geographic area; determine a viewport for displaying the map data on a user device; calculate a scale distance (204, 304) based on a measurement from the center of a first edge (206, 306) to the center of a second edge (208, 308) of the determined viewport; determine a scale orientation based on the measurement from the center of the first edge to the center of the second edge of the determined viewport; and provide, to the user device, the requested map data and instructions for displaying the map data, wherein the instructions include instructions to display a graphical element (202, 302) specifying the scale distance and the scale orientation in at least one of a horizontal or vertical direction.
A heat exchanger comprising: a heat exchanger core comprising first fluid flow channels and second fluid flow channels for exchange of heat between first fluid in the first fluid flow channels and second fluid in the second fluid flow channels; a first manifold portion to direct the first fluid between the first fluid flow channels in the heat exchanger core and a first fluid interface portion comprising fewer first fluid flow channels than the heat exchanger core, and a second manifold portion to direct the second fluid between the second fluid flow channels and a second fluid interface portion comprising fewer second fluid flow channels than the heat exchanger core; wherein the first manifold portion comprises at least one tunnel portion extending through the second manifold portion at an angle to the direction of second fluid flow through the second manifold portion, the first manifold portion is configured to direct at least part of the first fluid through the inside of the at least one tunnel portion and the second manifold portion is configured to direct the second fluid around the outside of the at least one tunnel portion. a heat exchanger core comprising first fluid flow channels and second fluid flow channels for exchange of heat between first fluid in the first fluid flow channels and second fluid in the second fluid flow channels; a first manifold portion to direct the first fluid between the first fluid flow channels in the heat exchanger core and a first fluid interface portion comprising fewer first fluid flow channels than the heat exchanger core, and a second manifold portion to direct the second fluid between the second fluid flow channels and a second fluid interface portion comprising fewer second fluid flow channels than the heat exchanger core; wherein the first manifold portion comprises at least one tunnel portion extending through the second manifold portion at an angle to the direction of second fluid flow through the second manifold portion, the first manifold portion is configured to direct at least part of the first fluid through the inside of the at least one tunnel portion and the second manifold portion is configured to direct the second fluid around the outside of the at least one tunnel portion.