mhurhangee/ep-ind-claims huggingface dataset:
Planting machine for planting tubers, wherein the planting machine comprises at least one hopper for holding a stock of tubers, at least two planting devices which each have at least one conveying element that circulates during operation of the planting device, and at least one drive device, wherein at least one of the planting devices, in particular each planting device, has a coupling device which can be transitioned from a coupled position, in which at least one conveying element of the planting device is driven by the drive device during operation, to a disconnected position, in which the conveying element is not driven by the drive device during operation, characterised in that the coupling device has an electromagnetic clutch or is designed as an electromagnetic clutch, wherein the electromagnetic clutch has at least two clutch partners which are designed to transmit force by way of a friction fit in the coupled position and of which at least one clutch partner is displaceable along a clutch rotation axis, wherein at least a first friction surface is substantially flat and a friction surface normal arranged at a right angle to the first friction surface is arranged parallel to or in the clutch rotation axis.
Six-axis machining robot for machining workpieces using a laser beam, with deflecting means, a coupling means, a machining robot head, a laser machining tool, especially with a nozzle means, and a machining laser, especially a CO 2 machining laser, for producing a laser beam, where the laser power is between 60 W and 300 W, wherein the laser beam is to be directed, by deflecting means, substantially along a longitudinal axis of the machining robot via an articulated coupling means into an inlet into a central machining robot axis and to a machining robot head comprising a laser machining tool around an output region of the laser beam, characterized by that the machining laser for generating the laser beam is integrated into a machining robot arm of the central machining robot axis, which essentially comprises a carbon housing, in particular consists of a carbon housing, whereas the carbon housing is a complete upper outer housing of the robot arm made of carbon with appropriate attachments made of aluminium.
A method of preserving a biomaterial selected from blood, cells, tissues and organs, comprising the step of simultaneously applying a minus DC voltage and an AC voltage to the biomaterial, wherein said simultaneous voltage application step is carried out by placing a container that stores said biomaterial on a voltage application plate made of a conductive material and supplied with said DC voltage and said AC voltage in a superposed manner by a pair of symmetrically arranged electrodes of electric wires that serve as common wires for the DC and the AC voltage, said container being made of a conductive metal or the container being a bag, and the inner side of said container bag being coated or laminated with a conductive material, and wherein the value set for the AC voltage is in the range from 500 V to 550 V and the value set for the DC voltage is about 1000 V or 3000 V in absolute value.
A liquid dosing system comprising at least one feeding channel for feeding the liquid to the system and at least one dosing nozzle, each dosing nozzle communicating with the at least one feeding channel via a corresponding valve, wherein the at least one feeding channel is adapted to feed the liquid in a state of overpressure, and in that a dosing module is located between each dosing nozzle and the corresponding valve, the dosing module comprising: i. a cylinder with a first piston adapted to reciprocate within the cylinder between an upper position and a lower position; ii. a dosing nozzle channel in which a spike is located, the spike being adapted to reciprocate within the dosing nozzle channel between an upper position in which the nozzle is open and a lower position in which the nozzle is closed; wherein each valve may take a closed position in which the dosing module is cut off from the feeding channel, or an open position enabling a tight hydraulic communication of the feeding channel with the dosing module in which open position the over pressured liquid is pushing against the first piston within the cylinder, and wherein the system is further provided with a first driving means adapted to cyclically move the first piston downwards characterized in that the system is further provided with a second driving means adapted to cyclically move the spike between its upper position and its lower position in relation to the dosing nozzle channel, the first and second driving means (23, 24) being synchronized with each other and with each valve so that the first piston is moved downwards so that the liquid is pushed out of the system while the spike is in its upper position and the valve is in its closed position. i. a cylinder with a first piston adapted to reciprocate within the cylinder between an upper position and a lower position; ii. a dosing nozzle channel in which a spike is located, the spike being adapted to reciprocate within the dosing nozzle channel between an upper position in which the nozzle is open and a lower position in which the nozzle is closed; wherein each valve may take a closed position in which the dosing module is cut off from the feeding channel, or an open position enabling a tight hydraulic communication of the feeding channel with the dosing module in which open position the over pressured liquid is pushing against the first piston within the cylinder, and wherein the system is further provided with a first driving means adapted to cyclically move the first piston downwards characterized in that the system is further provided with a second driving means adapted to cyclically move the spike between its upper position and its lower position in relation to the dosing nozzle channel, the first and second driving means (23, 24) being synchronized with each other and with each valve so that the first piston is moved downwards so that the liquid is pushed out of the system while the spike is in its upper position and the valve is in its closed position.
A flexible member transmission comprising: a first disc arranged for rotation on a first shaft; at least two secondary shafts (202,203) arranged for rotation in parallel to the first shaft, each secondary shaft having a secondary shaft disc (204,205) mounted thereon; a first flexible member rotationally connecting the first disc to each of the two secondary shafts (202, 203), wherein the first disc and secondary shafts (202, 203) are positioned such that the first flexible member has at least one segment (101a, 101b) with a tensile load of approximately zero newtons during operation; and characterized by a second flexible member rotationally connecting each secondary shaft disc (204, 205) to an output shaft, wherein the secondary shaft discs (204, 206) and output shaft are positioned such that the second flexible member has at least one segment with a tensile load of approximately zero newtons during operation. a first disc arranged for rotation on a first shaft; at least two secondary shafts (202,203) arranged for rotation in parallel to the first shaft, each secondary shaft having a secondary shaft disc (204,205) mounted thereon; a first flexible member rotationally connecting the first disc to each of the two secondary shafts (202, 203), wherein the first disc and secondary shafts (202, 203) are positioned such that the first flexible member has at least one segment (101a, 101b) with a tensile load of approximately zero newtons during operation; and characterized by a second flexible member rotationally connecting each secondary shaft disc (204, 205) to an output shaft, wherein the secondary shaft discs (204, 206) and output shaft are positioned such that the second flexible member has at least one segment with a tensile load of approximately zero newtons during operation.
A fluidic device comprising a body formed of four stacked body layers defined as first body layer, second body layer, third body layer and fourth body layer, said body enclosing a hydraulic microcircuit for moving a fluid, wherein the fluidic device is configured such that movement of said fluid in said hydraulic microcircuit is powered and controlled by at least one diaphragm member (106, 107, 108, 109) of a pneumatic microcircuit (106a, 107a, 108a, 109a) operatively linked thereto, wherein said hydraulic microcircuit of said stack is formed in said second body layer of said stack and said pneumatic microcircuit (106a, 107a, 108a, 109a) of said stack is formed in said third body layer thereof, characterized in that a plurality of diaphragm members (106, 107, 108, 109) are sealedly sandwiched between said second body layer and said third body layer, and each of the plurality of diaphragm members (106, 107, 108, 109) are made of dissimilar thin film materials.
A method of providing a stable lithium metal powder comprising the steps of: a) heating lithium metal powder to above its melting point to provide molten lithium metal; b) dispersing the molten lithium metal; and c) contacting the dispersed molten lithium metal with a phosphorous-containing compound to provide a substantially continuous protective layer of lithium phosphate on the lithium metal powder. a) heating lithium metal powder to above its melting point to provide molten lithium metal; b) dispersing the molten lithium metal; and c) contacting the dispersed molten lithium metal with a phosphorous-containing compound to provide a substantially continuous protective layer of lithium phosphate on the lithium metal powder.
A method comprising: receiving a message comprising a resource allocation map comprising a first portion (i) and a second portion; utilizing the first portion to determine a first mapping scheme or a second mapping scheme; characterized by the second mapping scheme comprising a plurality of further mapping schemes; wherein if the first portion indicates the first mapping scheme, it is determined that the second portion (ii) comprises a bitmap for a downlink resource allocation and the method further comprises obtaining resource allocation information based on the second portion; and if the first portion indicates the second mapping scheme, it is determined that the second portion (iii; iii, iv; iii, iv, v) is indicative of one of the further mapping schemes used for a third portion (vi; vii) and the method further comprises obtaining resource allocation information based on the second portion and the third portion. receiving a message comprising a resource allocation map comprising a first portion (i) and a second portion; utilizing the first portion to determine a first mapping scheme or a second mapping scheme; characterized by the second mapping scheme comprising a plurality of further mapping schemes; wherein if the first portion indicates the first mapping scheme, it is determined that the second portion (ii) comprises a bitmap for a downlink resource allocation and the method further comprises obtaining resource allocation information based on the second portion; and if the first portion indicates the second mapping scheme, it is determined that the second portion (iii; iii, iv; iii, iv, v) is indicative of one of the further mapping schemes used for a third portion (vi; vii) and the method further comprises obtaining resource allocation information based on the second portion and the third portion.
A process for producing a compound of formula: wherein R 1 and R 2 each independently are H, halogen, alkyl, fluoroalkyl, or aryl optionally substituted with at least one substituent, and R 3 is alkyl, fluoroalkyl, or aryl optionally substituted with at least one substituent, comprising reacting a compound of formula wherein R 1 and R 2 are as defined above: with an alcohol of the formula R 3 -OH wherein R 3 is as defined above and carbon monoxide in the presence of a transition metal complex catalyst containing at least one bidentate phosphine ligand and wherein the transition metal is at least one of Pd, Ni and Pt, and a base to obtain the compound of formula, with the proviso that, if R 1 = R 2 = H and R 3 is alkyl or fluoroalkyl, - the bidentate phosphine ligand is not 4,5-bis(diphenylphosphino)-9,9'-dimethyl-9H-xanthene, 1,4-bis(diphenylphosphino)butane, 1,3-bis(diphenylphosphino)propane, 1,1'-bis(diphenylphosphino)ferrocene, 2,2'-bis(diphenylphosphino)-1,1'-binaphthyl, if the transition metal complex catalyst is a Pd complex, and - if the transition metal complex catalyst is a Pd or Ni complex, the bidentate phosphine ligand is not a ligand of the following formula, wherein PS is polystyrene and Ph is phenyl: wherein R 1 and R 2 each independently are H, halogen, alkyl, fluoroalkyl, or aryl optionally substituted with at least one substituent, and R 3 is alkyl, fluoroalkyl, or aryl optionally substituted with at least one substituent, comprising reacting a compound of formula wherein R 1 and R 2 are as defined above: with an alcohol of the formula R 3 -OH wherein R 3 is as defined above and carbon monoxide in the presence of a transition metal complex catalyst containing at least one bidentate phosphine ligand and wherein the transition metal is at least one of Pd, Ni and Pt, and a base to obtain the compound of formula, with the proviso that, if R 1 = R 2 = H and R 3 is alkyl or fluoroalkyl, - the bidentate phosphine ligand is not 4,5-bis(diphenylphosphino)-9,9'-dimethyl-9H-xanthene, 1,4-bis(diphenylphosphino)butane, 1,3-bis(diphenylphosphino)propane, 1,1'-bis(diphenylphosphino)ferrocene, 2,2'-bis(diphenylphosphino)-1,1'-binaphthyl, if the transition metal complex catalyst is a Pd complex, and - if the transition metal complex catalyst is a Pd or Ni complex, the bidentate phosphine ligand is not a ligand of the following formula, wherein PS is polystyrene and Ph is phenyl: - the bidentate phosphine ligand is not 4,5-bis(diphenylphosphino)-9,9'-dimethyl-9H-xanthene, 1,4-bis(diphenylphosphino)butane, 1,3-bis(diphenylphosphino)propane, 1,1'-bis(diphenylphosphino)ferrocene, 2,2'-bis(diphenylphosphino)-1,1'-binaphthyl, if the transition metal complex catalyst is a Pd complex, and - if the transition metal complex catalyst is a Pd or Ni complex, the bidentate phosphine ligand is not a ligand of the following formula, wherein PS is polystyrene and Ph is phenyl:
A threaded end (1; 2) of a tubular component for drilling or working hydrocarbon wells, said end comprising a threaded zone (3; 4) produced on its external or internal peripheral surface depending on whether the threaded end is male or female in type, characterized in that at least a portion of the end (1; 2) is coated with a dry film comprising an organic matrix in which ion exchange pigments are dispersed in proportions in the range 3% to 30% by weight and in that the pigments comprise cation exchange pigments selected from the class defined by calcium, zinc, cobalt, strontium, lithium, magnesium and/or yttrium ion exchange amorphous silicas, calcium, molybdenum and/or sodium ion exchange zeolites, and calcium and/or cerium ion exchange bentonites and/ or anion exchange pigments constituted by vanadate ion exchange hydrotalcite.
A nutritional composition comprising a) a milk-derived product that is fermented by lactic acid producing bacteria, the fermented milk-derived product comprising lactic acid and/or lactate, and b) at least 6 g lactose per 100 ml nutritional composition and/or at least 40 wt.% lactose based on dry weight of the nutritional composition, and c) iron for use in treating and/or preventing anaemia and/or treating and/or preventing iron deficiency in a human subject. a) a milk-derived product that is fermented by lactic acid producing bacteria, the fermented milk-derived product comprising lactic acid and/or lactate, and b) at least 6 g lactose per 100 ml nutritional composition and/or at least 40 wt.% lactose based on dry weight of the nutritional composition, and c) iron
Shaft bearing device for a hand-held power tool (10a; 10b; 10d; 10e; 10f), in particular for an angle grinder and/or a circular saw, having at least one first support unit and having at least one second support unit (14a; 14b; 14d; 14e; 14f) which are intended axially and/or radially to support a bearing element (16a; 16b; 16d; 16e; 16f) of a shaft (18a; 18b; 18d; 18e; 18f), wherein at least one of the at least two support units (14a; 14b; 12d; 12e; 14e; 14f) is formed at least partially by a plate element (20a; 20b; 20d; 20e; 20f) having at least one axial and/or radial bend (22a; 24a; 22b; 24b; 22d; 22e; 24e; 22f; 24f), characterized in that at least one attachment unit (130h; 130i) for the releasable connection of the at least two support units (12h; 14h; 12i; 14i) is provided which is configured as a bayonet fixing (34h; 34i).
Optoelectronic device, comprising - an organic layer sequence, which emits an electromagnetic radiation having a first wavelength spectrum during operation; - a structured layer, which is disposed downstream of the organic layer sequence in the beam path of the electromagnetic radiation emitted by the organic layer sequence and has first and second regions (2A, 2B); wherein - the first regions each have a wavelength conversion layer formed to convert at least partially electromagnetic radiation having the first wavelength spectrum into an electromagnetic radiation having a second wavelength spectrum; and - the second regions each have a filter layer, which is at least partially opaque to an electromagnetic radiation having a third wavelength spectrum, which corresponds to at least one part of the second wavelength spectrum, wherein the first and second regions (2A, 2B) of the structured layer are arranged laterally in the beam path of the optoelectronic device; characterized in that the filter layer is transparent to the electromagnetic radiation over the entire wavelength range of the spectrum over which the organic layer sequence emits. - an organic layer sequence, which emits an electromagnetic radiation having a first wavelength spectrum during operation; - a structured layer, which is disposed downstream of the organic layer sequence in the beam path of the electromagnetic radiation emitted by the organic layer sequence and has first and second regions (2A, 2B); wherein - the first regions each have a wavelength conversion layer formed to convert at least partially electromagnetic radiation having the first wavelength spectrum into an electromagnetic radiation having a second wavelength spectrum; and - the second regions each have a filter layer, which is at least partially opaque to an electromagnetic radiation having a third wavelength spectrum, which corresponds to at least one part of the second wavelength spectrum, wherein the first and second regions (2A, 2B) of the structured layer are arranged laterally in the beam path of the optoelectronic device;
Glenoid positioning device comprising: - a hub with a reference through-hole and comprising three housings (102a, 102b, 102c) arranged radially; - three slide elements (103a, 103b, 103c) slidably housed within said three housings (102a, 102b, 102c) respectively, said three slide elements (103a, 103b, 103c) being configured to interact with a glenoid cavity; wherein said three slide elements (103a, 103b, 103c) are configured to be radially extended or retracted to identify a circular area of a glenoid cavity. - a hub with a reference through-hole and comprising three housings (102a, 102b, 102c) arranged radially; - three slide elements (103a, 103b, 103c) slidably housed within said three housings (102a, 102b, 102c) respectively, said three slide elements (103a, 103b, 103c) being configured to interact with a glenoid cavity;
Sheet comprising: multiple transparent and non-transparent strips (3, 2) extending in a longitudinal direction of said sheet, each of the transparent and non-transparent strips having a width in a transverse direction of the sheet, wherein the multiple transparent and non-transparent strips alternate in transverse direction of the sheet, wherein each non-transparent strip has a width which is less than the width of each transparent strip. multiple transparent and non-transparent strips (3, 2) extending in a longitudinal direction of said sheet, each of the transparent and non-transparent strips having a width in a transverse direction of the sheet, wherein the multiple transparent and non-transparent strips alternate in transverse direction of the sheet, wherein each non-transparent strip has a width which is less than the width of each transparent strip.
Prosthesis socket for receiving an amputation stump of an extremity, with connecting means for a distal prosthesis device, the prosthesis socket comprising at least one shell (10; 11, 12), which has a curved, open cross section and of which the shell ends, in the applied state, at least partially overlap each other, and at least one tensioning means (14, 15) being arranged on the shell (10; 11, 12), which tensioning means (14, 15) acts in the circumferential direction and tensions the shell ends relative to each other, wherein the shell (10; 11, 12) is made from a dimensionally stable plastic with areas of different elasticity, characterized in that the inner face (111, 121) of the shell (11, 12) has a direction-dependent surface configuration that offers greater resistance counter to a direction of insertion of the amputation stump than it does in the direction of insertion.
A cable for a latch configured to open and lock a door leaf of a motor vehicle, the cable comprising a cable sheath (12, 22) and a cable core (11a, 21a) movably housed within the sheath (12, 22), the cable core (11a, 21a) terminating in a cable end-piece (11, 21) at least at one end of the sheath (12, 22), the cable further comprising a mounting part fastened to said end of the sheath (12, 22), the mounting part housing the cable end-piece (11, 21), wherein the cable end-piece (11, 21) is movably mounted between - a delivery position in which the cable end-piece (11, 21) is disposed in a delivery area ( b) at a first distance from said end of the sheath (12, 22), and - an operating position in which the cable end-piece (11, 21) is disposed in an operating area ( c) at a second distance from said end of the sheath (12, 22), and wherein the mounting part further comprises a holding means (41, 42) for the cable end-piece (11, 21) in the delivery position. - a delivery position in which the cable end-piece (11, 21) is disposed in a delivery area ( b) at a first distance from said end of the sheath (12, 22), and - an operating position in which the cable end-piece (11, 21) is disposed in an operating area ( c) at a second distance from said end of the sheath (12, 22),