mhurhangee/ep-ind-claims huggingface dataset:
A laundry treatment apparatus comprising: a tub; a drum configured to rotate within the tub and to contain laundry therein, the drum being formed of a metallic material; and an induction module provided at an outer surface of the tub and configured to heat the drum within the tub via induction, the induction module comprising: a coil that comprises a wire configured to generate a magnetic field; a base housing configured to accommodate the coil therein, the base housing being mounted on the outer surface of the tub; and characterized in that the induction module further comprises: a plurality of permanent magnets configured to be arranged above the base housing in which the coil is accommodated, and arranged so as to be spaced apart from each other in the longitudinal direction of the wire of the coil, each of the plurality of permanent magnets being arranged to be lengthwise perpendicular to a longitudinal direction of the wire of the coil, the coil is sectioned into a front end portion, a rear end portion, and an intermediate portion located between the front end portion and the rear end portion, and the plurality of permanent magnets are arranged such that the permanent magnets are more densely disposed at the front end portion of the coil or the rear end portion of the coil than at the intermediate portion of the coil. a tub; a drum configured to rotate within the tub and to contain laundry therein, the drum being formed of a metallic material; and an induction module provided at an outer surface of the tub and configured to heat the drum within the tub via induction, the induction module comprising: a coil that comprises a wire configured to generate a magnetic field; a base housing configured to accommodate the coil therein, the base housing being mounted on the outer surface of the tub; and a coil that comprises a wire configured to generate a magnetic field; a base housing configured to accommodate the coil therein, the base housing being mounted on the outer surface of the tub; and a plurality of permanent magnets configured to be arranged above the base housing in which the coil is accommodated, and arranged so as to be spaced apart from each other in the longitudinal direction of the wire of the coil, each of the plurality of permanent magnets being arranged to be lengthwise perpendicular to a longitudinal direction of the wire of the coil, the coil is sectioned into a front end portion, a rear end portion, and an intermediate portion located between the front end portion and the rear end portion, and the plurality of permanent magnets are arranged such that the permanent magnets are more densely disposed at the front end portion of the coil or the rear end portion of the coil than at the intermediate portion of the coil.
A monitoring device for monitoring a closed position of a drive rod fitting of window, a French window or the like having a casement pivotable against a frame with a sensor element having a voltage generator for generating a radio signal, with a switching pin (10, 30) displaceable upon an actuation of the drive rod fitting and with an actuating device (11, 27) for the actuation of the sensor element, characterized in that the actuating device (11, 27) has a slide (15, 29), that the slide (15, 29) extends in the movement range of a switching pin (10, 30) upon drive of the drive rod fitting into the closed position and is connected to the sensor element via a lever (14, 32).
A compound of formula R u N - -S 2 X +, wherein: X is a tertiary amine selected from the group consisting of triethylenediamine, diazabicyclo[5.4.0]undec-7-ene and sparteine; R u is -C OC(R v) 2 (R w); each R v is independently selected from C 1-10 aliphatic, aryl or hydrogen; R w is C 1-10 aliphatic or aryl; or one R v is C 1-10 aliphatic; and the other R v is taken together with R w to form a C 3-6 cycloaliphatic ring. X is a tertiary amine selected from the group consisting of triethylenediamine, diazabicyclo[5.4.0]undec-7-ene and sparteine; R u is -C OC(R v) 2 (R w); each R v is independently selected from C 1-10 aliphatic, aryl or hydrogen; R w is C 1-10 aliphatic or aryl; or one R v is C 1-10 aliphatic; and the other R v is taken together with R w to form a C 3-6 cycloaliphatic ring.
A bacteria-free process for preparing a DNA molecule which comprises coding sequences for expressing at least two different segments of an influenza virus genome, wherein the process comprises steps of: (i) chemically synthesising a plurality of overlapping fragments of the DNA molecule, wherein the overlapping fragments span the complete DNA molecule; and (ii) joining the fragments to provide the DNA molecule.
Hand-held utensil, namely an item of tableware, such as a cutlery item, said utensil comprising two component elements, first a functional end piece and, second, a removable handle, said component elements being equipped with complementary engagement members arranged in order to couple said elements in a removable fashion, one of said component elements being provided with a tip, the other of said component elements being provided with a socket arranged in order to receive said tip, said functional end piece comprising a first transverse ramp and said handle comprising a second transverse ramp of a form complementary to that of the first transverse ramp in order to allow a juxtaposition of said two transverse ramps, the form of these transverse ramps being defined in order to generate a relative axial displacement of the two component elements when one is turned about its axis relative to the other, said complementary engagement members further comprising a locking device arranged in order to link one of the component elements relative to the other when these two component elements are coupled by means of said complementary engagement members of the functional end piece and of said handle, characterized in that said locking device comprises two substantially radial peripheral protuberances (15, 16) provided on one of said complementary engagement members and two axial grooves (22, 22a) provided in the other of said complementary engagement members, said grooves (22, 22a) being arranged in order to receive and to immobilize said substantially radial peripheral protuberances (15, 16) when the two component elements (11, 12) are coupled by means of said complementary engagement members of the functional end piece and of said handle.
A power cell comprising: a) means for encompassing a volume, said means comprising a membrane having a three-dimensional geometric structure encompassing a volume of a flow path; b) means for separately flowing fuel and oxidant inside the volume and outside of the volume; c) means for maintaining separation of the fuel and oxidant at the volume; d) means for reacting the fuel and oxidant to provide free electrons; and e) means for carrying the electrons to a load. a) means for encompassing a volume, said means comprising a membrane having a three-dimensional geometric structure encompassing a volume of a flow path; b) means for separately flowing fuel and oxidant inside the volume and outside of the volume; c) means for maintaining separation of the fuel and oxidant at the volume; d) means for reacting the fuel and oxidant to provide free electrons; and e) means for carrying the electrons to a load.
A position sensing waveguide configured to receive and transmit a pulse from a position sensing system, comprising: a first core layer and a second core layer; a magnetic layer between the first and second core layer: a conductive winding around the first core layer, the second core layer and the magnetic layer; a first substrate layer above the winding and a second substrate layer below the winding; and an epoxy layer, wherein the magnetic layer is embedded within the epoxy layer. waveguide configured to receive and transmit a pulse from a position sensing system, comprising: a first core layer and a second core layer; a magnetic layer between the first and second core layer: a conductive winding around the first core layer, the second core layer and the magnetic layer; a first substrate layer above the winding and a second substrate layer below the winding; and an epoxy layer, wherein the magnetic layer is embedded within the epoxy layer.
A polycrystalline diamond compact, comprising: a substrate; and a polycrystalline diamond table integrally formed with the substrate, the polycrystalline diamond table including an upper surface spaced from an interfacial surface that is bonded to the substrate, the polycrystalline diamond table including a plurality of diamond grains defining a plurality of interstitial regions, the polycrystalline diamond table further including: an alloy comprising at least one Group VIII metal and phosphorous, the alloy including at least one intermetallic compound having the at least one Group VIII metal and phosphorous, the at least one intermetallic compound being present in an amount greater than 80 weight % of the alloy, the alloy being disposed in at least a portion of the plurality of interstitial regions, wherein the at least one Group VIII metal includes cobalt, and wherein the polycrystalline diamond table includes a first region extending inwardly from the upper surface in which the alloy therein includes at least one cobalt-phosphorous intermetallic compound and a second region in which there is substantially none of the at least one cobalt-phosphorous intermetallic compound, the alloy being present in the polycrystalline table in an amount of 1 weight % to 7.5 weight %, and the geometry of the first region defining a substantially horizontal boundary between the first region and the underlying second region. a substrate; and a polycrystalline diamond table integrally formed with the substrate, the polycrystalline diamond table including an upper surface spaced from an interfacial surface that is bonded to the substrate, the polycrystalline diamond table including a plurality of diamond grains defining a plurality of interstitial regions, the polycrystalline diamond table further including: an alloy comprising at least one Group VIII metal and phosphorous, the alloy including at least one intermetallic compound having the at least one Group VIII metal and phosphorous, the at least one intermetallic compound being present in an amount greater than 80 weight % of the alloy, the alloy being disposed in at least a portion of the plurality of interstitial regions, wherein the at least one Group VIII metal includes cobalt, and wherein the polycrystalline diamond table includes a first region extending inwardly from the upper surface in which the alloy therein includes at least one cobalt-phosphorous intermetallic compound and a second region in which there is substantially none of the at least one cobalt-phosphorous intermetallic compound, the alloy being present in the polycrystalline table in an amount of 1 weight % to 7.5 weight %, and the geometry of the first region defining a substantially horizontal boundary between the first region and the underlying second region.
A computer-implemented method of providing autonomous driving control for a first autonomous driving vehicle, comprising: determining an initial driving maneuver for the first autonomous driving vehicle in response to the first autonomous driving vehicle perceiving a second vehicle; initiating a first visual communication signal provided by the first autonomous driving vehicle, wherein the first visual communication signal represents the initial driving maneuver; detecting a second visual communication signal that is provided by the second vehicle in response to the first visual communication signal; identifying a type of communication represented by the second visual communication signal, the identified type of communication represented by the second visual communication signal is an acknowledgement or a driving maneuver for the second vehicle, or both, wherein the second vehicle is a second autonomous driving vehicle; and determining a subsequent driving maneuver for the first autonomous driving vehicle based on the identified type of communication represented by the second visual communication signal; wherein the determining a subsequent driving maneuver for the first autonomous driving vehicle comprises: modifying the initial driving maneuver of the first autonomous driving vehicle if the second autonomous driving vehicle does not acknowledge the first visual communication signal or provides an intended driving maneuver conflicting with the intended driving maneuver of the first autonomous driving vehicle. determining an initial driving maneuver for the first autonomous driving vehicle in response to the first autonomous driving vehicle perceiving a second vehicle; initiating a first visual communication signal provided by the first autonomous driving vehicle, wherein the first visual communication signal represents the initial driving maneuver; detecting a second visual communication signal that is provided by the second vehicle in response to the first visual communication signal; identifying a type of communication represented by the second visual communication signal, the identified type of communication represented by the second visual communication signal is an acknowledgement or a driving maneuver for the second vehicle, or both, wherein the second vehicle is a second autonomous driving vehicle; and determining a subsequent driving maneuver for the first autonomous driving vehicle based on the identified type of communication represented by the second visual communication signal; wherein the determining a subsequent driving maneuver for the first autonomous driving vehicle comprises: modifying the initial driving maneuver of the first autonomous driving vehicle if the second autonomous driving vehicle does not acknowledge the first visual communication signal or provides an intended driving maneuver conflicting with the intended driving maneuver of the first autonomous driving vehicle.
A method comprising: receiving, at a block device interface, an instruction to write data, the instruction comprising a memory location of the data; characterised in that the method further comprises: copying the data to pinned memory; performing, by a vector processor, one or more invertible transforms on the data; and writing the data from the pinned memory to one or more storage devices asynchronously; wherein the pinned memory of the data corresponds to a location in pinned memory, the pinned memory being accessible by the vector processor and one or more other processors. receiving, at a block device interface, an instruction to write data, the instruction comprising a memory location of the data; characterised in that the method further comprises: copying the data to pinned memory; performing, by a vector processor, one or more invertible transforms on the data; and writing the data from the pinned memory to one or more storage devices asynchronously; wherein the pinned memory of the data corresponds to a location in pinned memory, the pinned memory being accessible by the vector processor and one or more other processors. copying the data to pinned memory; performing, by a vector processor, one or more invertible transforms on the data; and writing the data from the pinned memory to one or more storage devices asynchronously; wherein the pinned memory of the data corresponds to a location in pinned memory, the pinned memory being accessible by the vector processor and one or more other processors.
Method for producing a semiconductor arrangement, having at least one base element and one semiconductor, the semiconductor being attached to the base element by means of a sinter layer, characterised in that a region of the base element which is directly adjacent to the sinter layer is perforated at least in regions for adjusting the stiffness of the base element in a targeted manner, the perforating comprising producing, in the region of the base element, a plurality of through-openings which have a closed border and penetrate the base element, the sinter layer being planar on the side thereof facing the base element, such that the sinter layer does not engage into the through-openings.
A method for large-scale production of a polypeptide in eukaryote cells contained in a culture liquid at a cell density of 1-12 x 10 6 cells/mL, said method comprising: monitoring the concentration of dissolved CO 2 in the culture liquid, and constantly or intermittently sparging air through the culture liquid, wherein the sparging rate of the air is controlled in relation to the monitored concentration of dissolved CO 2 in the culture liquid; and wherein the air is sparged at a rate sufficient for maintaining the concentration of dissolved CO 2 in the culture liquid within a predetermined range comprising a set-point for said concentration and wherein no bases with a pH value of above 8.5 are added to the culture liquid.
A trigger device for a semi-automatic handgun, comprising a locking element swivel-mounted around a first axis and acting on a trigger element via a locking face, and a shot limitation device, which comprises a control element with at least two locking or control faces (AS1, AS2, AS3) defining one locking position (a, b, c) each for a pawl swivel-mounted around a second axis, characterised in that the control element is formed by a sear arranged in the path of action between a trigger and the trigger element, which acts on the trigger element through the pawl and the locking element in such a way that each shot is associated with a pressure point of the trigger, and that the pawl is swivel-mounted on the locking element around the second axis.
A method for determining whether an individual was exposed to one or more radiation sources during a monitored period, the method comprising: (a) determining whether an individual was wearing a dosimeter during a monitored period based upon motion and time data obtained from the dosimeter using a motion sensor, and characterized in that it further comprises: (b) determining whether an individual was wearing the dosimeter when the dosimeter was exposed to one or more radiation sources based upon measured radiation dosage data for the dosimeter, motion data for the dosimeter, time data associated with the radiation dosage data, and time data associated with the motion data, by correlating accelerometer displacements measurements from the dosimeter with the time data from clock outputs and exposure measurements from the dosimeter, (c) reporting whether the dosimeter was worn during a monitored period via display on a visual display device and/or via saving whether the individual was wearing a dosimeter when the dosimeter was exposed to one or more radiation sources to a storage medium, wherein the dosimeter comprises one or more motion sensors for generating the motion data, and (d) reporting whether the individual was wearing a dosimeter when the dosimeter was exposed to one or more radiation sources via display on a visual display device and/or via saving whether the individual was wearing a dosimeter when the dosimeter was exposed to one or more radiation doses to a storage medium, wherein the dosimeter comprises one or more motion sensors for generating the motion data. (a) determining whether an individual was wearing a dosimeter during a monitored period based upon motion and time data obtained from the dosimeter using a motion sensor, and (b) determining whether an individual was wearing the dosimeter when the dosimeter was exposed to one or more radiation sources based upon measured radiation dosage data for the dosimeter, motion data for the dosimeter, time data associated with the radiation dosage data, and time data associated with the motion data, by correlating accelerometer displacements measurements from the dosimeter with the time data from clock outputs and exposure measurements from the dosimeter, (c) reporting whether the dosimeter was worn during a monitored period via display on a visual display device and/or via saving whether the individual was wearing a dosimeter when the dosimeter was exposed to one or more radiation sources to a storage medium, wherein the dosimeter comprises one or more motion sensors for generating the motion data, and (d) reporting whether the individual was wearing a dosimeter when the dosimeter was exposed to one or more radiation sources via display on a visual display device and/or via saving whether the individual was wearing a dosimeter when the dosimeter was exposed to one or more radiation doses to a storage medium, wherein the dosimeter comprises one or more motion sensors for generating the motion data.
A polishing pad for polishing a semiconductor device, comprising a polishing layer having a polyurethane-polyurea resin foam containing substantially spherical cells, wherein the polyurethane-polyurea resin foam has a Young's modulus E in a range from 450 to 30000 kPa, the polyurethane-polyurea resin foam has a density D in a range from 0.30 to 0.60 g/cm 3, and the polyurethane-polyurea resin foam has a storage elastic modulus E' of 1 to 30 MPa, the storage elastic modulus E' being measured according to JIS K 7244-4 at 40°C with an initial load of 10 g, a strain range of 0.01 to 4%, and a measuring frequency of 0.2 Hz in a tensile mode.
Manufacturing process of a reinforcing component for a tyre, said process comprising: - arranging at least one polymeric elongated element; - coating said at least one polymeric elongated element with an adhesive coating layer for making at least one sticky elongated element; - providing an elastomeric compound comprising at least one elastomeric polymer, at least one reinforcing filler and components capable of facilitating the vulcanization; - coating said at least one sticky elongated element with said elastomeric compound, wherein coating said at least one polymeric elongated element comprises: - positioning said polymeric elongated element between two electrodes (90a, 90b) placed in a working chamber; - introducing between said two electrodes (90a, 90b) an activator gas and a precursor gas comprising an oxazolinic precursor; characterized in that coating said at least one polymeric elongated element comprises: - generating between said two electrodes a plasma gas comprising reactive fragments of said oxazolinic precursor; - depositing said reactive fragments on a free surface of said polymeric elongated element for making said adhesive coating layer. - arranging at least one polymeric elongated element; - coating said at least one polymeric elongated element with an adhesive coating layer for making at least one sticky elongated element; - providing an elastomeric compound comprising at least one elastomeric polymer, at least one reinforcing filler and components capable of facilitating the vulcanization; - coating said at least one sticky elongated element with said elastomeric compound, wherein coating said at least one polymeric elongated element comprises: - positioning said polymeric elongated element between two electrodes (90a, 90b) placed in a working chamber; - introducing between said two electrodes (90a, 90b) an activator gas and a precursor gas comprising an oxazolinic precursor; - positioning said polymeric elongated element between two electrodes (90a, 90b) placed in a working chamber; - introducing between said two electrodes (90a, 90b) an activator gas and a precursor gas comprising an oxazolinic precursor; characterized in that coating said at least one polymeric elongated element comprises: - generating between said two electrodes a plasma gas comprising reactive fragments of said oxazolinic precursor; - depositing said reactive fragments on a free surface of said polymeric elongated element for making said adhesive coating layer. - generating between said two electrodes a plasma gas comprising reactive fragments of said oxazolinic precursor; - depositing said reactive fragments on a free surface of said polymeric elongated element for making said adhesive coating layer.