mhurhangee/ep-ind-claims huggingface dataset:
gravity conveyer having an inlet, an outlet and a multi-loop spiral lane connecting said inlet and said outlet, said lane being installed around a vertical axis, wherein the lane is designed as a ferroconcrete surface, each loop of which being square shaped and along which movable gravity driven carts are mounted to run in a preset trajectory and overhead manipulators detached from said carts are mounted, where said manipulators travel trajectory is determined by a guide attached to the lower surface of the lane and cart travel trajectory is determined by a guide attached to the upper surface of the lane, wherein processing stations are installed along said lane, and said carts and manipulators (7, 8) controlled by a programmable magneto-optical system run and stop relative to said technological stations.
A cooking appliance, comprising: a support frame fastened to an inner surface of a front panel; an actuating member fastened rotatably to the support frame; a knob ring body which forms an appearance of the knob ring, and is rotatably operated by a user; a knob which provides a knob shaft, arranged outside the knob ring, and is rotatably operated by the user separately with the knob ring; a knob ring sensor which senses a rotation of the knob ring body; a display device; a valve which is fixed inside the cooking appliance, and the valve having a valve shaft to control a flow of gas supplied to a burner; and a knob sensor which senses rotation of the valve shaft; wherein the knob shaft is connected to the valve shaft; characterized in that the cooking appliance further comprises a knob ring back plate coupled to rotate with the actuating member integrally in an outer surface of the front panel; the knob ring body being fastened to the knob ring back plate and being arranged around the knob; a protruding portion protruding from the knob ring body and being arranged to an upper center of the knob ring body for fixing the display device; the display device being arranged to an upper center of the knob ring body, fixed by the protruding portion and disposed at the protruded position from the knob ring body, being rotatably operated with the knob ring body integrally, and displays information set by the operation of the knob ring sensor and information set by the rotation of the valve shaft sensed by the knob ring sensor. a support frame fastened to an inner surface of a front panel; an actuating member fastened rotatably to the support frame; a knob ring body which forms an appearance of the knob ring, and is rotatably operated by a user; a knob which provides a knob shaft, arranged outside the knob ring, and is rotatably operated by the user separately with the knob ring; a knob ring sensor which senses a rotation of the knob ring body; a display device; a valve which is fixed inside the cooking appliance, and the valve having a valve shaft to control a flow of gas supplied to a burner; and a knob sensor which senses rotation of the valve shaft; wherein the knob shaft is connected to the valve shaft; characterized in that the cooking appliance further comprises a knob ring back plate coupled to rotate with the actuating member integrally in an outer surface of the front panel; the knob ring body being fastened to the knob ring back plate and being arranged around the knob; a protruding portion protruding from the knob ring body and being arranged to an upper center of the knob ring body for fixing the display device; the display device being arranged to an upper center of the knob ring body, fixed by the protruding portion and disposed at the protruded position from the knob ring body, being rotatably operated with the knob ring body integrally, and displays information set by the operation of the knob ring sensor and information set by the rotation of the valve shaft sensed by the knob ring sensor.
An assembly for a drug delivery device, the assembly comprising an actuator which is configured to be pushed down in order to dispense a dose of medication, a piston rod and a feedback feature being configured to give an audible and/or tactile feedback signal to a user, wherein the feedback feature comprises a snap feature, characterized in that the feedback signal is given at the end of a dwell period after the actuator has reached its fully pushed down position, • wherein the snap feature is configured to snap through at the end of the dwell period or • the snap feature is configured to snap back into its uncompressed form at the end of the dwell period in case the snap feature is compressed by the piston rod during dose dispense and the snap feature is arranged at the distal end of the piston rod. • wherein the snap feature is configured to snap through at the end of the dwell period or • the snap feature is configured to snap back into its uncompressed form at the end of the dwell period in case the snap feature is compressed by the piston rod during dose dispense and the snap feature is arranged at the distal end of the piston rod.
An automatic injection device for dispensing a medicament, said device having a needle connected to a barrel adapted to retain medicament and a plunger within said barrel, an outside first body member and a second body member coaxially mounted for reciprocal movement within said outside first body member between an extended position where the needle is not exposed and a compressed position where the needle is exposed, said outside first body member housing said needle, said barrel and said plunger; characterized in that said device comprises: a first rack and a second rack housed within said outside first body member; a third rack connected to said plunger; and pinion means (60, 60') rotatably mounted to said outside first body member and between said first rack and said third rack and between said second rack and said third rack, said second body member including a needle cover biased with a spring to cover said needle in said extended position and expose said needle in said compressed position; wherein in use said second body member moves said first rack and said second rack thereby moving said plunger into said barrel through its connection to the rack which engages each of the pinions (60, 60') to dispense said medicament, wherein said first rack and said second rack each include abutment means (132, 134) for abutting legs (128, 130) connected to said needle cover. a first rack and a second rack housed within said outside first body member; a third rack connected to said plunger; and pinion means (60, 60') rotatably mounted to said outside first body member and between said first rack and said third rack and between said second rack and said third rack, said second body member including a needle cover biased with a spring to cover said needle in said extended position and expose said needle in said compressed position; wherein in use said second body member moves said first rack and said second rack thereby moving said plunger into said barrel through its connection to the rack which engages each of the pinions (60, 60') to dispense said medicament, wherein said first rack and said second rack each include abutment means (132, 134) for abutting legs (128, 130) connected to said needle cover.
3D magnetic field sensor (10; 20) for capturing three spatial magnetic field components (Bx; By; Bz) in a reference area (12; 44), comprising: a first magnetoresistive sensor element arrangement (14a-d) for capturing a first magnetic field component (B x) with respect to a first spatial axis (x) and with respect to the reference area (12; 44); a second magnetoresistive sensor element arrangement (16a-d) for capturing a second magnetic field component (B y) with respect to a second spatial axis (y) and with respect to the reference area (12; 44); and a third magnetoresistive sensor element arrangement (18a-d) for capturing a third magnetic field component (B z) with respect to a third spatial axis (z) and with respect to the reference area (12; 44); wherein each of the magnetoresistive sensor element arrangements is arranged as a bridge circuit (34a-c) with a plurality of magnetoresistive sensor elements (14a-d; 16a-d; 18a-d; 32a-d; 34a-d; 36a-d); wherein the spatial axes (x; y; z) extend along linearly independent location vectors in the space; characterized in that the sensor elements (14a-d; 16a-d; 18a-d; 32a-d; 34a-d; 36a-d) of the bridge circuits (34a-c) of the first, second and third magnetoresistive sensor element arrangements are Wheatstone bridges arranged around a mutual surface normal, each having magnetic sensitive spatial directions that are different in pairs. a first magnetoresistive sensor element arrangement (14a-d) for capturing a first magnetic field component (B x) with respect to a first spatial axis (x) and with respect to the reference area (12; 44); a second magnetoresistive sensor element arrangement (16a-d) for capturing a second magnetic field component (B y) with respect to a second spatial axis (y) and with respect to the reference area (12; 44); and a third magnetoresistive sensor element arrangement (18a-d) for capturing a third magnetic field component (B z) with respect to a third spatial axis (z) and with respect to the reference area (12; 44); wherein each of the magnetoresistive sensor element arrangements is arranged as a bridge circuit (34a-c) with a plurality of magnetoresistive sensor elements (14a-d; 16a-d; 18a-d; 32a-d; 34a-d; 36a-d); wherein the spatial axes (x; y; z) extend along linearly independent location vectors in the space; characterized in that the sensor elements (14a-d; 16a-d; 18a-d; 32a-d; 34a-d; 36a-d) of the bridge circuits (34a-c) of the first, second and third magnetoresistive sensor element arrangements are Wheatstone bridges arranged around a mutual surface normal, each having magnetic sensitive spatial directions that are different in pairs.
A three-layer steel strip composite consisting of steel strip having a first microstructure disposed between two steel strips having a second microstructure, wherein (i) the steel strip having the first microstructure is selected from the group consisting of (a) a TRIP steel containing in weight % 0.10 - 0.30 % C, 1.0 - 3.5 % Mn, 0.2 - 0.8 % Si and 0.5 - 2.0 % Al, (b) a TWIP steel containing in weight % between 10 and 40 % manganese and up to 10 % aluminium, (c) a quenched and partitioned steel containing in weight % 0.15 - 0.4% C, 1.0 - 3.0% Mn, 1.0 - 2.5% Si, 0 - 0.5% Mo and 0 -1.0% Cr and (d) a low density steel containing in weight % 0 - 0.2% C, 0 - 2.0% Si, 0 - 5% Mn, 2 - 17% Al, 0 - 3% Cr, 0 -0.2% Ti and 0 - 0.2% Ce, wherein (ii) the steel strip having the second microstructure is selected from the group consisting of an interstitial-free, extra low carbon, ultra low carbon or low carbon steel containing in weight % 0 - 0.1% C, 0 - 1.0% Mn, 0 - 0.1% Si, 0 - 0.1% Al and 0 - 0.1% Cr and wherein (iii) a metal or metal alloy coating comprising zinc, aluminium or an alloy thereof is present on each steel strip having the second microstructure on a surface opposite to the surface contacting the steel strip having the first microstructure.
A wheel hub unit for a vehicle having a hydraulic drive unit comprising a hydraulic motor, wherein at least one swivel axis and/or steering axis is provided for swivelling and/or steering the hydraulic motor, wherein the hydraulic motor has at least one motor housing, wherein the motor housing has a connecting flange having at least one inlet and one outlet connection for pressurisation with hydraulic fluid, wherein a rotary transmission is provided for conducting the hydraulic fluid to/from the hydraulic motor, wherein the rotary transmission comprises at least one stator unit having at least one flange and a rotor unit having at least two hydraulic connections (27 and 28) for pressurisation with hydraulic fluid and being rotatable about a rotary axis in relation to the stator unit, characterised in that the stator unit has at least one first stator element having a first flange surface and a second stator element having a second flange surface, wherein a distance is provided in the direction of the rotary axis between the two stator elements and/or flange surfaces.
A method of fabricating an object by additive manufacturing, comprising: irradiating a laser beam on a portion of powder in a powder bed, wherein the irradiation creates an ion channel extending to the powder; and applying an electrical pulse to the ion channel, wherein the electrical pulse is transmitted through the ion channel to the powder in the powder bed, wherein the laser beam and the electrical pulse each contribute to melting or sintering the portion of the powder in the powder bed. irradiating a laser beam on a portion of powder in a powder bed, wherein the irradiation creates an ion channel extending to the powder; and applying an electrical pulse to the ion channel, wherein the electrical pulse is transmitted through the ion channel to the powder in the powder bed, wherein the laser beam and the electrical pulse each contribute to melting or sintering the portion of the powder in the powder bed.
An apparatus for receiving waste and generating energy by producing steam from the waste, the apparatus minimizing air pollutants by thermally processing the waste to produce a carbon free residual mineral, the apparatus comprising: - a gasifier (102, 106) configured to receive the waste and air to produce a fuel gas; - a reformer fluidly coupled to the gasifier (102, 106), the reformer configured to receive the fuel gas, a first stream of recycled flue gas, and a first stream of air to auto-thermally produce a reformed fuel gas and destroy pollutants in the fuel gas at a first temperature; - a burner fluidly coupled to the reformer, the burner configured to receive a second stream of recycled flue gas and a second stream of air to oxidize the reformed fuel gas at a second temperature that prevents formation of nitrogen oxide, the second temperature being lower than the first temperature; - a quench chamber fluidly coupled to the burner, the quench chamber configured to receive flue gas from the burner that is quenched with a third stream of recycled flue gas; and - a heat recovery system fluidly coupled to the quench chamber, the heat recovery system configured to receive flue gas from the quench chamber and to provide the first, second, and third streams of recycled flue gas, respectively. - a gasifier (102, 106) configured to receive the waste and air to produce a fuel gas; - a reformer fluidly coupled to the gasifier (102, 106), the reformer configured to receive the fuel gas, a first stream of recycled flue gas, and a first stream of air to auto-thermally produce a reformed fuel gas and destroy pollutants in the fuel gas at a first temperature; - a burner fluidly coupled to the reformer, the burner configured to receive a second stream of recycled flue gas and a second stream of air to oxidize the reformed fuel gas at a second temperature that prevents formation of nitrogen oxide, the second temperature being lower than the first temperature; - a quench chamber fluidly coupled to the burner, the quench chamber configured to receive flue gas from the burner that is quenched with a third stream of recycled flue gas; and - a heat recovery system fluidly coupled to the quench chamber, the heat recovery system configured to receive flue gas from the quench chamber and to provide the first, second, and third streams of recycled flue gas, respectively.
A mobile device comprising: a display; a data reader comprising an optical image indicia reader configured for reading and decoding symbology located on a target upon being activated by an operator; at least one vehicle data collection device in electronic communication with the data reader, comprising an accelerometer and configured to monitor at least one vehicle performance characteristic; a global positioning system module; a wireless communications module; a memory device; a processor; and, a housing configured for supporting the display, the data reader, the vehicle data collection device, the GPS module, the wireless communications module, the memory device and the processor, wherein the mobile device is further configured to be positioned inside a vehicle during periods when the data reader is not used by the operator for reading and decoding symbology, and wherein the at least one vehicle performance characteristic monitored by the data collection device includes off center package loading when the mobile device is positioned inside the vehicle. a display; a data reader comprising an optical image indicia reader configured for reading and decoding symbology located on a target upon being activated by an operator; at least one vehicle data collection device in electronic communication with the data reader, comprising an accelerometer and configured to monitor at least one vehicle performance characteristic; a global positioning system module; a wireless communications module; a memory device; a processor; and, a housing configured for supporting the display, the data reader, the vehicle data collection device, the GPS module, the wireless communications module, the memory device and the processor, wherein the mobile device is further configured to be positioned inside a vehicle during periods when the data reader is not used by the operator for reading and decoding symbology, and wherein the at least one vehicle performance characteristic monitored by the data collection device includes off center package loading when the mobile device is positioned inside the vehicle.
A method for operating a gearless wind turbine, and the gearless wind turbine comprises - a generator for generating electrical power from wind, the generator having a generator axis, - a nacelle for supporting the generator, and - a tower for supporting the nacelle, the tower having a tower axis, and the method comprises the steps - sensing at least one tower vibration by means of a vibration pickup, - sensing a mechanical generator vibration, caused by at least one electrical fault, by means of the same vibration pickup, and - controlling the wind turbine in dependence on the sensed tower vibration and the sensed generator vibration, wherein the vibration pickup - is realized as an acceleration sensor, and - an acceleration is sensed in at least two directions. - a generator for generating electrical power from wind, the generator having a generator axis, - a nacelle for supporting the generator, and - a tower for supporting the nacelle, the tower having a tower axis, - sensing at least one tower vibration by means of a vibration pickup, - sensing a mechanical generator vibration, caused by at least one electrical fault, by means of the same vibration pickup, and - controlling the wind turbine in dependence on the sensed tower vibration and the sensed generator vibration, wherein - is realized as an acceleration sensor, and - an acceleration is sensed in at least two directions.
A method for producing an antibody-drug conjugate comprising reacting a compound represented by the following formula: (maleimid-N-yl) -CH 2 CH 2 CH 2 CH 2 CH 2 -C(=O)-GGFG-NH-CH 2 -O-CH 2 -C(=O)-(NH-DX) with an anti-TROP2 antibody or a reactive derivative thereof, that has been obtained by reducing the anti-TROP2 antibody, and conjugating a drug-linker moiety to the antibody by a method for forming a thioether bond at a disulfide bond site present in a hinge part of the antibody, wherein (maleimid-N-yl)- is a group represented by the following formula: wherein the nitrogen atom is a connecting position, and -(NH-DX) is a group represented by the following formula: wherein the nitrogen atom of the amino group at position 1 is a connecting position, and -GGFG- represents a tetrapeptide residue of -Gly-Gly-Phe-Gly-, wherein the anti-TROP2 antibody comprises CDRH1 consisting of the amino acid sequence of SEQ ID NO: 23, CDRH2 consisting of the amino acid sequence of SEQ ID NO: 24 and CDRH3 consisting of the amino acid sequence of SEQ ID NO: 25 in its heavy chain variable region and CDRL1 consisting of the amino acid sequence of SEQ ID NO: 26, CDRL2 consisting of the amino acid sequence of SEQ ID NO: 27 and CDRL3 consisting of the amino acid sequence of SEQ ID NO: 28 in its light chain variable region. with an anti-TROP2 antibody or a reactive derivative thereof, that has been obtained by reducing the anti-TROP2 antibody, and conjugating a drug-linker moiety to the antibody by a method for forming a thioether bond at a disulfide bond site present in a hinge part of the antibody, wherein (maleimid-N-yl)- is a group represented by the following formula: wherein the nitrogen atom is a connecting position, and -(NH-DX) is a group represented by the following formula: wherein the nitrogen atom of the amino group at position 1 is a connecting position, and -GGFG- represents a tetrapeptide residue of -Gly-Gly-Phe-Gly-, wherein the anti-TROP2 antibody comprises CDRH1 consisting of the amino acid sequence of SEQ ID NO: 23, CDRH2 consisting of the amino acid sequence of SEQ ID NO: 24 and CDRH3 consisting of the amino acid sequence of SEQ ID NO: 25 in its heavy chain variable region and CDRL1 consisting of the amino acid sequence of SEQ ID NO: 26, CDRL2 consisting of the amino acid sequence of SEQ ID NO: 27 and CDRL3 consisting of the amino acid sequence of SEQ ID NO: 28 in its light chain variable region.