mhurhangee/ep-ind-claims huggingface dataset:
A process for the production of a PGM-enriched alloy comprising 0 to 60 wt.-% of iron and 20 to 99 wt.-% of one or more PGMs selected from the group consisting of platinum, palladium and rhodium, the process comprising the steps: providing a PGM collector alloy comprising 30 to 95 wt.-% of iron, less than 1 wt.-% of sulfur and 2 to 15 wt.-% of one or more PGMs selected from the group consisting of platinum, palladium and rhodium, providing a copper- and sulfur-free material capable of forming a slag-like composition when molten, wherein the molten slag-like composition comprises 40 to 90 wt.-% of magnesium oxide and/or calcium oxide and 10 to 60 wt.-% of silicon dioxide, melting the PGM collector alloy and the material capable of forming a slag-like composition when molten in a weight ratio of 1: 0.2 to 1 within a converter until a multi- or two-phase system of a lower high-density molten mass comprising the molten PGM collector alloy and one or more upper low-density molten masses comprising the molten slag-like composition has formed, contacting an oxidizing gas comprising 0 to 80 vol.-% of inert gas and 20 to 100 vol.-% of oxygen with the lower high-density molten mass obtained in step until it has been converted into a lower high-density molten mass of the PGM-enriched alloy, separating an upper low-density molten slag formed in the course of step from the lower high-density molten mass of the PGM-enriched alloy making use of the difference in density, letting the molten masses separated from one another cool down and solidify, and collecting the solidified PGM-enriched alloy. providing a PGM collector alloy comprising 30 to 95 wt.-% of iron, less than 1 wt.-% of sulfur and 2 to 15 wt.-% of one or more PGMs selected from the group consisting of platinum, palladium and rhodium, providing a copper- and sulfur-free material capable of forming a slag-like composition when molten, wherein the molten slag-like composition comprises 40 to 90 wt.-% of magnesium oxide and/or calcium oxide and 10 to 60 wt.-% of silicon dioxide, melting the PGM collector alloy and the material capable of forming a slag-like composition when molten in a weight ratio of 1: 0.2 to 1 within a converter until a multi- or two-phase system of a lower high-density molten mass comprising the molten PGM collector alloy and one or more upper low-density molten masses comprising the molten slag-like composition has formed, contacting an oxidizing gas comprising 0 to 80 vol.-% of inert gas and 20 to 100 vol.-% of oxygen with the lower high-density molten mass obtained in step until it has been converted into a lower high-density molten mass of the PGM-enriched alloy, separating an upper low-density molten slag formed in the course of step from the lower high-density molten mass of the PGM-enriched alloy making use of the difference in density, letting the molten masses separated from one another cool down and solidify, and collecting the solidified PGM-enriched alloy.
A protective device for protecting at least two electrical cables against an electric arc, each electrical cable comprising at least one electrical terminal (28, 28A, 28B), the protective device comprising: - a body comprising: + a front face in which holes are formed, each for receiving the electrical terminal (28, 28A, 28B) of a respective one of the electrical cables, + first and second faces (40, 42) disposed on either side of the front face, each hole extending along a hole axis, the hole axes extending parallel to the first and second faces (40, 42), the protective device being characterised in that it further comprises at least one magnetic element, each magnetic element being attached to the first face or the second face, the magnetic element or elements together generating a magnetic field; and in that the protective device further comprises a first guide member of the magnetic field attached to the first face, and a second guide member of the magnetic field attached to the second face, the first and second guide members (34a, 34b) being configured to channel the magnetic field therebetween, the guide members (34a, 34b) preferably extending beyond the body such that the electrical terminals (28, 28A, 28B) are interposed between the guide members (34a, 34b) when received in the holes. - a body comprising: + a front face in which holes are formed, each for receiving the electrical terminal (28, 28A, 28B) of a respective one of the electrical cables, + first and second faces (40, 42) disposed on either side of the front face, each hole extending along a hole axis, the hole axes extending parallel to the first and second faces (40, 42), + a front face in which holes are formed, each for receiving the electrical terminal (28, 28A, 28B) of a respective one of the electrical cables, + first and second faces (40, 42) disposed on either side of the front face, each hole extending along a hole axis, the hole axes extending parallel to the first and second faces (40, 42),
Electronic component in the form of an organic light-emitting diode (OLED) or an organic solar cell having an organic semiconductor component containing a hole transport layer of an organic matrix material doped with an organic dopant, characterized in that the organic matrix material is comprised at least partly of a spiro-bifluorene compound of formula and/or formula wherein each R and/or R' in formula and formula is independently selected from the group consisting of hydrogen, methyl, ethyl, n-propyl, iso-propyl, n-butyl, iso-butyl, tert-butyl, NH 2, N(CH 3) 2 and NPh 2, wherein not all of R in formula are simultaneously hydrogen and in formula R is not hydrogen, wherein the glass transition temperature of the organic matrix material is at least 120°C and the highest occupied molecular orbital (HOMO) of the matrix material lies at a maximum energy level of 5.4 eV.
A solar module comprising: a solar cell with a light-receiving surface and a back surface; and an encapsulant sealing the solar cell, wherein the encapsulant includes a light-receiving surface side encapsulant located on a light-receiving surface side of the solar cell, wherein the light-receiving surface side encapsulant contains a non-crosslinkable resin, and the light-receiving surface side encapsulant contains polyolefin, and a back surface side encapsulant located on a back surface side of the solar cell, wherein the back surface side encapsulant contains a crosslinkable resin, and the back surface side encapsulant contains an ethylene-vinyl acetate copolymer; wherein a water vapor transmission rate of the back surface side encapsulant is higher than that of the light-receiving surface side encapsulant, and wherein a ratio (T2/T1) of a thickness of the back surface side encapsulant at an end surface thereof to a thickness of the back surface side encapsulant at a region where the solar cell is provided is smaller than a ratio (T4/T3) of a thickness of the light-receiving surface side encapsulant at an end surface thereof to a thickness of the light-receiving surface side encapsulant at a region where the solar cell is provided, and wherein the thickness of back surface side encapsulant is reduced at the end surface thereof. a solar cell with a light-receiving surface and a back surface; and an encapsulant sealing the solar cell, wherein the encapsulant includes a light-receiving surface side encapsulant located on a light-receiving surface side of the solar cell, wherein the light-receiving surface side encapsulant contains a non-crosslinkable resin, and the light-receiving surface side encapsulant contains polyolefin, and a back surface side encapsulant located on a back surface side of the solar cell, wherein the back surface side encapsulant contains a crosslinkable resin, and the back surface side encapsulant contains an ethylene-vinyl acetate copolymer; wherein a water vapor transmission rate of the back surface side encapsulant is higher than that of the light-receiving surface side encapsulant, and wherein a ratio (T2/T1) of a thickness of the back surface side encapsulant at an end surface thereof to a thickness of the back surface side encapsulant at a region where the solar cell is provided is smaller than a ratio (T4/T3) of a thickness of the light-receiving surface side encapsulant at an end surface thereof to a thickness of the light-receiving surface side encapsulant at a region where the solar cell is provided, and wherein the thickness of back surface side encapsulant is reduced at the end surface thereof.
An air disperser for a spray drying apparatus, comprising a number of components including a top, a bottom and an outer circumferential wall forming a space defined within an inner radius and an outer radius and having an air inlet, a set of guide vanes, and an air outlet at said inner radius adapted to be positioned above a feed outlet from atomizing means, wherein the bottom and outer wall of said space are provided by a base module formed as a double-walled unit comprising a lower portion and an upper portion, characterized in that each of the lower portion and the upper portion is formed by metal spinning, wherein the top is provided by a top plate, optionally a two-part top plate, and wherein said top plate is formed by metal spinning.
A relay station (130, 317, 327) for allocating resources in a cellular communication system including a base station adapted to allocate resources of a licensed band, to generate and transmit a licensed band available-resource list, and the relay station adapted to receive said licensed band available-resource list, to allocate resources of an unlicensed band and to relay communication between a terminal and the base station, wherein the relay station is further adapted to: receive, from the terminal, a frequency resource request for communication, determine whether the terminal is located outside of a first service area of the base station, if the terminal is located outside of the first service area, allocate, to the terminal, resource of the unlicensed band, if the terminal is located in the first service area, determine whether an available resource exists in the licensed band based on said licensed band available-resource list: if the available resource exists in the licensed band, allocate, to the terminal, the available resource in the licensed band, and if the available resource does not exist in the licensed band, allocate resource of the unlicensed band, wherein the relay station is adapted for being deployed in a cell boundary or a shadow area of the base station, and wherein the unlicensed band is allocated to a second service area served by the relay station. receive, from the terminal, a frequency resource request for communication, determine whether the terminal is located outside of a first service area of the base station, if the terminal is located outside of the first service area, allocate, to the terminal, resource of the unlicensed band, if the terminal is located in the first service area, determine whether an available resource exists in the licensed band based on said licensed band available-resource list: if the available resource exists in the licensed band, allocate, to the terminal, the available resource in the licensed band, and if the available resource does not exist in the licensed band, allocate resource of the unlicensed band, wherein the relay station is adapted for being deployed in a cell boundary or a shadow area of the base station, and wherein the unlicensed band is allocated to a second service area served by the relay station. if the available resource exists in the licensed band, allocate, to the terminal, the available resource in the licensed band, and if the available resource does not exist in the licensed band, allocate resource of the unlicensed band, wherein the relay station is adapted for being deployed in a cell boundary or a shadow area of the base station, and wherein the unlicensed band is allocated to a second service area served by the relay station.
A method for controlling a manufacturing of a group of final metal product(s) from a group of intermediate metal product(s), the controlling method being implemented by an electronic controlling device and comprising, for each intermediate metal product, the following steps: - acquiring a set of intermediate characteristic(s) (C IP) for said intermediate metal product; - determining a current estimated set of final characteristic(s) (C est_cur) with at least one corresponding prediction model and according to the set of intermediate characteristic(s) (C IP) and to a respective current manufacturing route from said intermediate metal product; - comparing the current estimated set of final characteristic(s) (C est_cur) with a current target set of final characteristic(s) (C target_cur) for a respective current final metal product; characterized in that if a deviation between the current estimated set of final characteristic(s) (C est_cur) and the current target set of final characteristic(s) (C target_cur) is above a predefined threshold, the method further comprises the following steps: - obtaining at least one new target set(s) of final characteristic(s) (C target_new) for respective new final metal product(s); and - calculating a new manufacturing route from said intermediate metal product according to the set of intermediate characteristic(s) (C IP) and to the at least one new target set(s) of final characteristic(s) (C target_new). - acquiring a set of intermediate characteristic(s) (C IP) for said intermediate metal product; - determining a current estimated set of final characteristic(s) (C est_cur) with at least one corresponding prediction model and according to the set of intermediate characteristic(s) (C IP) and to a respective current manufacturing route from said intermediate metal product; - comparing the current estimated set of final characteristic(s) (C est_cur) with a current target set of final characteristic(s) (C target_cur) for a respective current final metal product; - obtaining at least one new target set(s) of final characteristic(s) (C target_new) for respective new final metal product(s); and - calculating a new manufacturing route from said intermediate metal product according to the set of intermediate characteristic(s) (C IP) and to the at least one new target set(s) of final characteristic(s) (C target_new).
Device holder cup for electrical or data technological installation devices, comprising a frame with a circumferential wall and in each case with at least one projection (14, 16) on opposite end faces of the frame for mounting the device holder cup (10, 50) in mounting openings of an underfloor cassette, wherein at least one separate cover plate (22, 24) to be placed onto a first rim of the circumferential wall is provided, wherein the cover plate (22, 24) is provided at least partially with fastening devices for installation devices, characterized in that an upper side and an underside of the frame are open, and in that at least one separate bottom plate (26, 28) to be placed onto a second rim of the circumferential wall, opposite to the first rim, is provided, wherein a side of the circumferential wall, which is an exterior side in relation to an interior space of the device holder cup (10, 50), is provided with groove-type recesses extending from the first rim to the second rim, each provided with outward oriented latching lugs (40, 42) in the region of the first and the second rims (36, 38) and used for at least sectional receiving of resilient latching hooks (30, 34) of the cover plates (22, 24) and the bottom plates (26, 28), respectively, wherein the latching lugs in the region of the first rim are configured to be engaged behind by the resilient latching hooks of the cover plates (22, 24) after placing-on of the cover plates (22, 24), and wherein the latching lugs in the region of the second rim are configured to be engaged behind by the resilient latching hooks of the bottom plates (26, 28) after placing-on of the bottom plates (26, 28).
A pharmaceutical combination comprising a chemotherapeutic agent and a compound of formula: or a pharmaceutically acceptable salt thereof, wherein, B is phenyl, pyridinyl, pyrimidinyl, or pyrazinyl; each of which may be optionally substituted by alkyl, aryl, aralkyl, haloalkyl, halo, OH, NH 2, CN, or NO 2; R 1 is H, alkyl, aryl, arylalkyl, or heteroaryl, each of which may be optionally substituted; and R is H or alkyl. B is phenyl, pyridinyl, pyrimidinyl, or pyrazinyl; each of which may be optionally substituted by alkyl, aryl, aralkyl, haloalkyl, halo, OH, NH 2, CN, or NO 2; R 1 is H, alkyl, aryl, arylalkyl, or heteroaryl, each of which may be optionally substituted; and R is H or alkyl.
A planetary gear device comprising: a first internal gear and a second internal gear; a first external gear which meshes with the first internal gear; a second external gear which meshes with the second internal gear; and an eccentric body which circumferentially moves the first external gear and the second external gear, wherein the first external gear and the second external gear each independently have external teeth (41, 51) and are connected to each other so as to integrally rotate with each other, each of the first internal gear and the second internal gear has a support body (25, 35) and independently has internal teeth which are constituted by rotating bodies (24, 34) rotatable with respect to the support body (25, 35), characterized in that one of the support bodies (25, 35) of the first internal gear and the second internal gear is fixed to a casing of the planetary gear device, and the other thereof is connected to an output shaft, the rotating body (24, 34) has a pin member (22, 32) which is fixedly supported by the support body (25, 35) outside the first external gear and the second external gear in an axial direction of the first and second external gears (40, 50), a roller member (21, 31) which is externally fitted to the pin member (22, 32), and a rolling element (231, 331) which is disposed between the pin member (22, 32) and the roller member (21, 31). a first internal gear and a second internal gear; a first external gear which meshes with the first internal gear; a second external gear which meshes with the second internal gear; and an eccentric body which circumferentially moves the first external gear and the second external gear, wherein the first external gear and the second external gear each independently have external teeth (41, 51) and are connected to each other so as to integrally rotate with each other, each of the first internal gear and the second internal gear has a support body (25, 35) and independently has internal teeth which are constituted by rotating bodies (24, 34) rotatable with respect to the support body (25, 35), characterized in that one of the support bodies (25, 35) of the first internal gear and the second internal gear is fixed to a casing of the planetary gear device, and the other thereof is connected to an output shaft, the rotating body (24, 34) has a pin member (22, 32) which is fixedly supported by the support body (25, 35) outside the first external gear and the second external gear in an axial direction of the first and second external gears (40, 50), a roller member (21, 31) which is externally fitted to the pin member (22, 32), and a rolling element (231, 331) which is disposed between the pin member (22, 32) and the roller member (21, 31).
A multifunctional wheelchair, comprising a base with wheels and an adjustable lifting device connected above the base, wherein the adjustable lifting device comprises a seat plate, a backrest hinged to a rear end of the seat plate, a lower connecting plate connected to the base, and a support structure hinged between the seat plate and the lower connecting plate, the support structure comprises a front support bar assembly and a rear support bar assembly; and the adjustable lifting device further comprises a driving mechanism for driving the rotation of the support structure and/or for driving the lifting of the seat plate, the driving mechanism generating a rotary motion or a linear motion, so that a parallelogram mechanism formed by the seat plate, the front support bar assembly, the lower connecting plate, and the rear support bar assembly is in an unfolded state or a stored state; characterized in that the adjustable lifting device further comprises: a front baffle hinged to a front end of the seat plate; a front armrest hinged to a middle portion of the front end of the seat plate; and a neck pillow disposed at an outer end of the backrest; and the front support bar assembly comprises a left front support bar and a right front support bar, and the rear support bar assembly comprises a left rear support bar and a right rear support bar. a front baffle hinged to a front end of the seat plate; a front armrest hinged to a middle portion of the front end of the seat plate; and a neck pillow disposed at an outer end of the backrest; and the front support bar assembly comprises a left front support bar and a right front support bar, and the rear support bar assembly comprises a left rear support bar and a right rear support bar.
An electrochemical machining system comprising: a component having a passage, said passage having an opening and an internal surface formed along said passage; a conductive wire having insulation covering portions of said conductive wire forming gaps having exposed wire, said conductive wire being inserted in said passage; a power source coupled to said component and said conductive wire forming an electrical circuit, wherein said component comprises an anode and said conductive wire comprises a cathode; and an electrolyte within said passage contacting said internal surface and said exposed wire, wherein the electrolyte comprises a charge-carrying liquid configured to complete the electrical circuit between the cathode and anode; a spacer coupled to said wire proximate said insulation, the spacer being configured to prevent the wire from touching the internal surface of the passage to prevent a short circuit, wherein said spacer comprises a body having a bore and a standoff coupled to said body, said standoff configured to contact said internal surface and configured to centrally locate said wire within the passage, characterised in that: said spacer comprises an electrically conductive disk in electrical contact with the wire and located within the body insulated from direct contact with the internal surface. a component having a passage, said passage having an opening and an internal surface formed along said passage; a conductive wire having insulation covering portions of said conductive wire forming gaps having exposed wire, said conductive wire being inserted in said passage; a power source coupled to said component and said conductive wire forming an electrical circuit, wherein said component comprises an anode and said conductive wire comprises a cathode; and an electrolyte within said passage contacting said internal surface and said exposed wire, wherein the electrolyte comprises a charge-carrying liquid configured to complete the electrical circuit between the cathode and anode; a spacer coupled to said wire proximate said insulation, the spacer being configured to prevent the wire from touching the internal surface of the passage to prevent a short circuit, wherein said spacer comprises a body having a bore and a standoff coupled to said body, said standoff configured to contact said internal surface and configured to centrally locate said wire within the passage,