mhurhangee/ep-ind-claims huggingface dataset:
An agricultural working machine in the form of a tractor, comprising - a vehicle frame, - a propulsion engine, as well as - a transmission device, wherein the propulsion engine comprises an engine housing and a take-off shaft, wherein the transmission device comprises a pump transfer gear and a continuously variable transmission, wherein on the take-off side, the pump transfer gear has at least one output shaft for operational connection to the continuously variable transmission and at least one connection (29, 30) for a hydraulic drive means (25, 26), characterized in that the pump transfer gear is flange-mounted on the propulsion engine in a manner such that the propulsion engine is at least partially supported on the vehicle frame by means of the pump transfer gear. - a vehicle frame, - a propulsion engine, as well as - a transmission device, wherein the propulsion engine comprises an engine housing and a take-off shaft, wherein the transmission device comprises a pump transfer gear and a continuously variable transmission, wherein on the take-off side, the pump transfer gear has at least one output shaft for operational connection to the continuously variable transmission and at least one connection (29, 30) for a hydraulic drive means (25, 26), characterized in that the pump transfer gear is flange-mounted on the propulsion engine in a manner such that the propulsion engine is at least partially supported on the vehicle frame by means of the pump transfer gear.
A composition for regenerating cartilage comprising a porous biocompatible micro-scaffold to which at least one amine-functionalized Fe 3 O 4 nanoparticle and at least one cartilage-producing cell are attached, wherein the amine-functionalized Fe 3 O 4 nanoparticle is prepared by attaching polyethyleneimine to a Fe 3 O 4 nanoparticle, and wherein the amine-functionalized Fe 3 O 4 nanoparticle is covalently linked to a carboxylic group of the porous biocompatible micro-scaffold by a covalent bond between the PEI and the porous biocompatible micro-scaffold, wherein the cartilage producing cell is loaded to the porous biocompatible micro-scaffold, wherein the porous biocompatible micro-scaffold is made from a biodegradable polymer selected from the group consisting of collagen, hyaluronic acid, gelatin, chitosan, PLGA {poly (lactic-co-glycolic acid)}, PGA {poly (glycolic acid)}, PLA {poly (lactic acid)}, and PEG (polyethylene glycol), and wherein the porous biocompatible micro-scaffold has a diameter of 200-800 μm and a pore size of the surface and interior of 20-200 μm. wherein the amine-functionalized Fe 3 O 4 nanoparticle is prepared by attaching polyethyleneimine to a Fe 3 O 4 nanoparticle, and wherein the amine-functionalized Fe 3 O 4 nanoparticle is covalently linked to a carboxylic group of the porous biocompatible micro-scaffold by a covalent bond between the PEI and the porous biocompatible micro-scaffold, wherein the cartilage producing cell is loaded to the porous biocompatible micro-scaffold, wherein the porous biocompatible micro-scaffold is made from a biodegradable polymer selected from the group consisting of collagen, hyaluronic acid, gelatin, chitosan, PLGA {poly (lactic-co-glycolic acid)}, PGA {poly (glycolic acid)}, PLA {poly (lactic acid)}, and PEG (polyethylene glycol), and wherein the porous biocompatible micro-scaffold has a diameter of 200-800 μm and a pore size of the surface and interior of 20-200 μm.
An airfoil for a gas turbine engine, comprising: a first side; and a second side opposite the first side, the first side and the second side extending axially from a leading edge to a trailing edge and radially from a base to a tip, the tip including an oblique surface between the first side and the second side; wherein the tip further includes a flat surface between the first side and the second side, wherein the flat surface is either adjacent to the first side, the oblique surface descending from the flat surface to the second side; or adjacent to the second side, the oblique surface descending from the flat surface to the first side; characterized in that the flat surface and the oblique surface include a hard plating reinforcement. a first side; and a second side opposite the first side, the first side and the second side extending axially from a leading edge to a trailing edge and radially from a base to a tip, the tip including an oblique surface between the first side and the second side; wherein the tip further includes a flat surface between the first side and the second side, wherein the flat surface is either adjacent to the first side, the oblique surface descending from the flat surface to the second side; or adjacent to the second side, the oblique surface descending from the flat surface to the first side; characterized in that the flat surface and the oblique surface include a hard plating reinforcement.
Delivery unit for an anode circuit of a fuel cell system for delivering a gaseous medium, in particular hydrogen, out of an anode region of a fuel cell, wherein the delivery unit comprises at least one recirculation blower, wherein the delivery unit is at least indirectly fluidically connected by means of at least one connecting line to the outlet of the anode region, and wherein the delivery unit is fluidically connected by means of a further connecting line to the inlet of the anode region, characterized in that the delivery unit has a jet pump, a dosing valve and a separator as further components in addition to the component of recirculation blower, wherein the flow contours of the components (4, 6, 8, 10) for the gaseous medium are arranged at least approximately entirely in a common housing, and wherein the recirculation blower has a compressor wheel with an encircling outer delimiting ring which runs rotationally symmetrically with respect to an axis of rotation of the compressor wheel, and wherein an at least partially encapsulated separation space is situated in the housing of the delivery unit on that side of the compressor wheel which is averted from the axis of rotation.
A hair styling device having: a body defining a chamber adapted to accommodate a length of hair, the chamber having a primary opening through which the length of hair may pass into the chamber; a rotatable element adapted to rotate relative to the body, to engage the length of hair adjacent to the primary opening, and to wind the length of hair around an elongate member which is adjacent to the rotatable element; a movable panel having an open position in which the primary opening is open to receive the length of hair, and a closed position in which the primary opening is covered; characterised in that the elongate member has a free end; in that the chamber has a secondary opening which surrounds the free end of the elongate member; and in that the movable panel has heating means. a body defining a chamber adapted to accommodate a length of hair, the chamber having a primary opening through which the length of hair may pass into the chamber; a rotatable element adapted to rotate relative to the body, to engage the length of hair adjacent to the primary opening, and to wind the length of hair around an elongate member which is adjacent to the rotatable element; a movable panel having an open position in which the primary opening is open to receive the length of hair, and a closed position in which the primary opening is covered; characterised in that the elongate member has a free end; in that the chamber has a secondary opening which surrounds the free end of the elongate member; and in that the movable panel has heating means.
A planting tool comprising: a hollow tube for receiving a seedling; a movable jaw arranged at an end portion of the hollow tube; a pedal configured to move the movable jaw when pressed downward, thereby allowing the seedling to exit the hollow tube; a release rod operably connected to the movable jaw; and a dispenser configured to provide a predetermined amount of granulated fertilizer to the seedling upon planting of the seedling, wherein the dispenser comprises: a housing with an inlet for receiving a container accommodating the granulated fertilizer and an outlet connected to the hollow tube, and a dosage mechanism arranged in the housing and configured to deliver the predetermined amount of the granulated fertilizer from the inlet to the outlet, characterized in that the release rod is configured to reciprocate along the hollow tube upon movement of the movable jaw, and in that the release rod is operably connected to the dosage mechanism such that, upon movement of the movable jaw, the dosage mechanism performs a back-and-forth movement to provide the predetermined amount of the granulated fertilizer into the hollow tube via the outlet. a hollow tube for receiving a seedling; a movable jaw arranged at an end portion of the hollow tube; a pedal configured to move the movable jaw when pressed downward, thereby allowing the seedling to exit the hollow tube; a release rod operably connected to the movable jaw; and a dispenser configured to provide a predetermined amount of granulated fertilizer to the seedling upon planting of the seedling, wherein the dispenser comprises: a housing with an inlet for receiving a container accommodating the granulated fertilizer and an outlet connected to the hollow tube, and a dosage mechanism arranged in the housing and configured to deliver the predetermined amount of the granulated fertilizer from the inlet to the outlet, characterized in that the release rod is configured to reciprocate along the hollow tube upon movement of the movable jaw, and in that the release rod is operably connected to the dosage mechanism such that, upon movement of the movable jaw, the dosage mechanism performs a back-and-forth movement to provide the predetermined amount of the granulated fertilizer into the hollow tube via the outlet. a housing with an inlet for receiving a container accommodating the granulated fertilizer and an outlet connected to the hollow tube, and a dosage mechanism arranged in the housing and configured to deliver the predetermined amount of the granulated fertilizer from the inlet to the outlet, characterized in that the release rod is configured to reciprocate along the hollow tube upon movement of the movable jaw, and in that the release rod is operably connected to the dosage mechanism such that, upon movement of the movable jaw, the dosage mechanism performs a back-and-forth movement to provide the predetermined amount of the granulated fertilizer into the hollow tube via the outlet.
Method for adjusting the cutting gap on a slicing device for cutting food products, wherein the slicing device has a rotatingly driven blade, a cutting edge and an adjusting device which moves the blade perpendicularly with respect to the cutting edge toward the cutting edge or away from said cutting edge, in which method the blade is first of all moved by the adjusting device until the blade contacts the cutting edge and a desired spacing between the blade and the cutting edge is then adjusted by the adjusting device, characterized in that the lag error - of the rotational drive of the blade and/or - of the drive of the adjusting device which moves the blade perpendicularly with respect to the cutting edge, is determined when the blade contacts the cutting edge. - of the rotational drive of the blade and/or - of the drive of the adjusting device which moves the blade perpendicularly with respect to the cutting edge,
An air-bag, integrally formed by hollow weaving, the air-bag comprising: a main chamber; a sub-chamber; and a communication portion (13, 14) configured for connecting the main chamber and the sub-chamber, the sub-chamber being configured to be expanded by gas supplied from the main chamber through the communication portion; wherein one of the communication portion (13, 14) or a region adjacent to the communication portion is made up of a multilayer woven structure portion including three or more layers; and wherein the multilayer woven structure portion is made up of a combination of three-layer weave comprising intermediate layer (b) and four-layer weave, the four-layer weave comprising intermediate layers (a1, a2) disposed on the main chamber side and the sub-chamber side of the three-layer weave, and, when the main chamber inflates, intermediate layer (b) of the three-layer weave gives rise to yarn slippage resulting in movement of intermediate layer (b) of the three-layer weave in the direction of intermediate layer of four-layer weave on the sub-chamber side causing the opening of the communication portion to become smaller thereby hindering gas flow into the sub-chamber. a main chamber; a sub-chamber; and a communication portion (13, 14) configured for connecting the main chamber and the sub-chamber, the sub-chamber being configured to be expanded by gas supplied from the main chamber through the communication portion; wherein one of the communication portion (13, 14) or a region adjacent to the communication portion is made up of a multilayer woven structure portion including three or more layers; and wherein the multilayer woven structure portion is made up of a combination of three-layer weave comprising intermediate layer (b) and four-layer weave, the four-layer weave comprising intermediate layers (a1, a2) disposed on the main chamber side and the sub-chamber side of the three-layer weave, and, when the main chamber inflates, intermediate layer (b) of the three-layer weave gives rise to yarn slippage resulting in movement of intermediate layer (b) of the three-layer weave in the direction of intermediate layer of four-layer weave on the sub-chamber side causing the opening of the communication portion to become smaller thereby hindering gas flow into the sub-chamber.
An ex-vivo method for assessing the efficacy of a treatment in a patient suffering of cancer with an immunogenic composition, wherein the testing method comprises the step of: measuring levels of interferon γ in a blood, plasma or serum sample obtained from said patient after administration of the said immunogenic composition to said patient, wherein the time between the initiation of said treatment comprising administration of said immunogenic composition and interferon γ measurements is from about 4 to about 8 weeks; and wherein levels of interferon γ above about 4 pg/ml indicate that the patient is indicative of a successful clinical outcome for the treatment, and wherein said immunogenic composition contains at least one recombinant viral vector expressing in vivo all or part of MUC1 antigen and wherein said recombinant viral vector further expresses IL-2. measuring levels of interferon γ in a blood, plasma or serum sample obtained from said patient after administration of the said immunogenic composition to said patient, wherein the time between the initiation of said treatment comprising administration of said immunogenic composition and interferon γ measurements is from about 4 to about 8 weeks; and wherein levels of interferon γ above about 4 pg/ml indicate that the patient is indicative of a successful clinical outcome for the treatment, and wherein said immunogenic composition contains at least one recombinant viral vector expressing in vivo all or part of MUC1 antigen and wherein said recombinant viral vector further expresses IL-2.
A semiconductor device package comprising: a radio frequency front end circuit configured to process radio frequency signals; a first antenna (41, 103) configured to transmit/receive a first radio frequency signal; a second antenna (42, 105) configured to transmit/receive a second radio frequency signal; an antenna substrate (11, 102) comprising the first antenna (41, 103) and the second antenna (42, 105) and configured to transfer the first radio frequency signal between the radio frequency front end circuit and the first antenna (41, 103) and to transfer the second radio frequency signal between the radio frequency front end circuit and the second antenna (42, 105); and a first conductive barrier (12, 104) configured to electromagnetically and electrostatically isolate the first antenna (41, 103) and including a plurality of through vias (36, 38, 39) in conductor material, wherein the through vias (36, 38, 39) are connected to ground, a second conductive barrier (12, 106) configured to electromagnetically and electrostatically isolate the second antenna (42, 105) wherein the first conductive barrier (11, 104) and the second conductive barrier (12, 106) are spaced from each other, wherein the through vias (36, 38, 39) are extended through the antenna substrate (11, 102), characterized in that the plurality of through vias (36, 38, 39) includes a first group of through vias (36, 38) and a second group of through vias which differ from the through vias (36, 38) of the first group in the cross section, which is rectangular for the through vias of the second group. a radio frequency front end circuit configured to process radio frequency signals; a first antenna (41, 103) configured to transmit/receive a first radio frequency signal; a second antenna (42, 105) configured to transmit/receive a second radio frequency signal; an antenna substrate (11, 102) comprising the first antenna (41, 103) and the second antenna (42, 105) and configured to transfer the first radio frequency signal between the radio frequency front end circuit and the first antenna (41, 103) and to transfer the second radio frequency signal between the radio frequency front end circuit and the second antenna (42, 105); and a first conductive barrier (12, 104) configured to electromagnetically and electrostatically isolate the first antenna (41, 103) and including a plurality of through vias (36, 38, 39) in conductor material, wherein the through vias (36, 38, 39) are connected to ground, a second conductive barrier (12, 106) configured to electromagnetically and electrostatically isolate the second antenna (42, 105) wherein the first conductive barrier (11, 104) and the second conductive barrier (12, 106) are spaced from each other, wherein the through vias (36, 38, 39) are extended through the antenna substrate (11, 102), characterized in that the plurality of through vias (36, 38, 39) includes a first group of through vias (36, 38) and a second group of through vias which differ from the through vias (36, 38) of the first group in the cross section, which is rectangular for the through vias of the second group.
Sensor device for detecting a wheel moving along a rail, which sensor device - has, on one side of the rail, two transmitting coils (11,12) which are supplied with an alternating voltage and are arranged one behind the other with respect to a longitudinal direction of the rail and, - on the other side of the rail, has two receiving devices (31,35) with two receiving coils (32,33;36,37) in each case which are connected to one another in series in opposite directions and likewise arranged one behind the other with respect to the longitudinal direction of the rail, characterised in that - the sensor device has at least one further transmitting coil on the one side of the rail which is arranged between the transmitting coils (11,12) with respect to the longitudinal direction of the rail, - the transmitting coils (11,12) and the at least one further transmitting coil are supplied with an alternating voltage of the same frequency and - the magnetic flux generated by the at least one further transmitting coil is directed opposite to the magnetic fluxes (21,22) generated by the transmitting coils (11,12). - has, on one side of the rail, two transmitting coils (11,12) which are supplied with an alternating voltage and are arranged one behind the other with respect to a longitudinal direction of the rail and, - on the other side of the rail, has two receiving devices (31,35) with two receiving coils (32,33;36,37) in each case which are connected to one another in series in opposite directions and likewise arranged one behind the other with respect to the longitudinal direction of the rail, - the sensor device has at least one further transmitting coil on the one side of the rail which is arranged between the transmitting coils (11,12) with respect to the longitudinal direction of the rail, - the transmitting coils (11,12) and the at least one further transmitting coil are supplied with an alternating voltage of the same frequency and - the magnetic flux generated by the at least one further transmitting coil is directed opposite to the magnetic fluxes (21,22) generated by the transmitting coils (11,12).
A respirator mask, comprising: a faceplate including an aperture, the aperture being sized and configured to receive a respirator; a mask body, the mask body being coupled to the faceplate and including a housing portion located beneath the aperture; and a power supply that is removably coupled to the mask body housing portion; wherein the mask body housing portion and the power supply are configured and arranged such that the power supply is located at a predetermined vertical distance from the aperture in an area proximate to a user's chin, when the mask is worn by the user, and wherein the power supply is a battery cartridge; the mask body housing portion defining a recess sized and configured to receive at least a portion of the battery cartridge, wherein the mask body housing portion has a first, front surface and a second, lower surface orthogonal to the first surface, the battery cartridge including an edge surface that is coplanar with the second surface of the mask body housing portion, and wherein the battery cartridge further includes a surface that is coplanar with the first surface of the mask body housing portion. a faceplate including an aperture, the aperture being sized and configured to receive a respirator; a mask body, the mask body being coupled to the faceplate and including a housing portion located beneath the aperture; and a power supply that is removably coupled to the mask body housing portion; wherein the mask body housing portion and the power supply are configured and arranged such that the power supply is located at a predetermined vertical distance from the aperture in an area proximate to a user's chin, when the mask is worn by the user, and wherein the power supply is a battery cartridge; the mask body housing portion defining a recess sized and configured to receive at least a portion of the battery cartridge, wherein the mask body housing portion has a first, front surface and a second, lower surface orthogonal to the first surface, the battery cartridge including an edge surface that is coplanar with the second surface of the mask body housing portion, and wherein the battery cartridge further includes a surface that is coplanar with the first surface of the mask body housing portion.
Method of controlling and monitoring the brewing process of filter holder coffee machines, characterised in that the duration of brewing, the brewing pressure, the grinding fineness, the coffee quantity, the water quantity, the brewing temperature and the tamper process are monitored with respect to force and duration and optionally also the filter holder temperature and in that case these parameters can be adapted, whereby through the adaptation the brewing process can be approximated to a predetermined optimum and that the individual stations of a coffee machine, with at least one filter holder and at least one coffee grinder, are matched to one another, that the kind of filter holder when inserted into the coffee machine is detected and the coffee machine is controlled by way of a control device, wherein the filter holder is provided with a programmable chip which in the inserted state of the filter holder in the coffee machine reports its kind and its position, that the control device detects the grinding amount and the grinding fineness of the coffee grinder and correspondingly controls the determined parameters and that the filter holder chip influences the grinding fineness and/or the grinding amount.