mhurhangee/patent-ind-claim-en huggingface dataset:
A process for roasting of metal concentrate, wherein concentrate particles are fed into a roaster where they are thermally treated at a temperature in the range of 500 and 1200 °C in a fluidized bed to form a calcine, and wherein at least parts of the calcine are withdrawn from the roaster together with a gas stream as a solid fraction, characterized in that particles are gained in another hydrometallurgical step as other particles, that at least parts of the other particles are pelletized, whereby at least 80 % of the pellets feature a diameter of at least 80 % of the concentrate particles average diameter and that the pellets are fed into the roaster that the metal concentrate contains at least 45 wt.-% zinc, whereby the concentrate particles' average diameter is between 5 and 40 μm, that the metal concentrate contains at least 60 wt.-% pyrite, whereby the concentrate particles' average diameter is between 5 and 90 μm, that the metal concentrate contains at least 2 g/t gold, whereby the concentrate particles' average diameter is between 5 and 100 μm that the metal concentrate contains at least 15 wt.-% copper, whereby the concentrate particles' average diameter is between 10 and 50 μm that the metal concentrate contains at least 1 wt.-% cobalt whereby the concentrate particles' average diameter is between 5 and 40 μm or that the metal concentrate contains at least 100 g/t PGMS, whereby the concentrate particles' average diameter is between 20 - 100 μm and that the other particles are gained in a direct leaching (DL) step or in an Albion process step or in a Pressure Oxidation (POX) step or in a Biological Oxidation (BIOX) step or in a Pure Jarosite (PJ) process.
A floor panel for transport means, in particular for trains, ships or boats, the floor panel comprising a metal plate ; at least one heating cable adapted to generate heat when it is crossed by electric current; a net , provided with a plurality of openings , in particular meshes; wherein said at least one heating cable is arranged between the net and the metal plate ; characterized in that said at least one heating cable is in contact with the metal plate . a metal plate ; at least one heating cable adapted to generate heat when it is crossed by electric current; a net , provided with a plurality of openings , in particular meshes; wherein said at least one heating cable is arranged between the net and the metal plate ; characterized in that said at least one heating cable is in contact with the metal plate .
A method performed by a terminal in a wireless communication system, the method comprising: receiving, from a base station , configuration information for in-device coexistence, IDC, including information on a list of candidate serving cells for which the terminal is requested to report IDC problems; detecting the IDC problems for at least one serving cell, the at least serving cell being identified from the list of the candidate serving cells; and transmitting, to the base station , IDC assistance information for the IDC problems including information on the at least one serving cell based on the configuration information, wherein the information on the list of the candidate serving cells includes an absolute radio frequency channel number, ARFCN and a bandwidth of a frequency range for each candidate serving cell, and wherein a value of the AFRCN for each candidate serving cell indicates a center frequency of the frequency range for each candidate serving cell. receiving, from a base station , configuration information for in-device coexistence, IDC, including information on a list of candidate serving cells for which the terminal is requested to report IDC problems; detecting the IDC problems for at least one serving cell, the at least serving cell being identified from the list of the candidate serving cells; and transmitting, to the base station , IDC assistance information for the IDC problems including information on the at least one serving cell based on the configuration information, wherein the information on the list of the candidate serving cells includes an absolute radio frequency channel number, ARFCN and a bandwidth of a frequency range for each candidate serving cell, and wherein a value of the AFRCN for each candidate serving cell indicates a center frequency of the frequency range for each candidate serving cell.
An anti-disengagement system that can be automatically activated comprising a support fixable to a wall (P) and a hidden hanging bracket for wall cupboards wherein a wall cupboard (M) is hookable to the support by means of a movable hook with a curved hooking tooth forming part of the hanging bracket carriable by said wall cupboard (M) at the rear, wherein said support and said curved hooking tooth of said movable hook provide engagement elements (19; 191, 145) automatically snap-activated with the insertion of said curved hooking tooth in a housing of said support wherein said engagement elements are elastically yielding (19; 191, 145), characterized in that said elastically yielding engagement elements comprise an elastic plate produced integrally, in at least one of its parts, with said hook and in that said elastic plate provides a fixing portion to a body of the hook and a free end that passes through a window formed in the body of the hook to face the inside of the curved tooth of said hook .
A method for acoustically analysing a machine (M) comprising the acquisition of at least one acoustic signal delivered by a plurality of microphones positioned within the machine, characterised in that it further includes the following steps: - separating, from the at least one acoustic signal, a plurality of virtual signals each representative of a sound source, said separation comprising a modelling of said at least one acoustic signal acquired as a mixture of components each corresponding to one of said sound sources, the separation being carried out by constituting, over a time block, a matrix (X) of acoustic signals composed of as many lines as microphones, and the number of columns of which is equal to the number of samples of each acoustic signal in the time block, then by constituting, from this matrix of acoustic signals, a matrix of sources (S) grouping, on each of its lines, the samples of a virtual signal from a sound source, the sound sources being independent or quasi-independent; - determining an acoustic signature characteristic of at least one virtual signal of a sound source; - comparing the characteristic acoustic signatures with at least one reference acoustic signature recorded in a reference database . - separating, from the at least one acoustic signal, a plurality of virtual signals each representative of a sound source, said separation comprising a modelling of said at least one acoustic signal acquired as a mixture of components each corresponding to one of said sound sources, the separation being carried out by constituting, over a time block, a matrix (X) of acoustic signals composed of as many lines as microphones, and the number of columns of which is equal to the number of samples of each acoustic signal in the time block, then by constituting, from this matrix of acoustic signals, a matrix of sources (S) grouping, on each of its lines, the samples of a virtual signal from a sound source, the sound sources being independent or quasi-independent; - determining an acoustic signature characteristic of at least one virtual signal of a sound source; - comparing the characteristic acoustic signatures with at least one reference acoustic signature recorded in a reference database .
A method of operating a receiver, comprising: receiving, by the receiver, a wireless signal ; identifying a packet within the wireless signal , during processing of a preamble of the packet; determining that the packet cannot be decoded with a reliability greater than a reliability threshold by determining that the power of the received wireless signal increases by greater than a power increase threshold; and powering down at least a portion of the receiver for at least an expected duration of the packet after determining that the packet cannot be decoded with the reliability greater than the reliability threshold . receiving, by the receiver, a wireless signal ; identifying a packet within the wireless signal , during processing of a preamble of the packet; determining that the packet cannot be decoded with a reliability greater than a reliability threshold by determining that the power of the received wireless signal increases by greater than a power increase threshold; and powering down at least a portion of the receiver for at least an expected duration of the packet after determining that the packet cannot be decoded with the reliability greater than the reliability threshold .
Tracheal ventilation device , in particular tracheostomy cannula or endotracheal tube, comprising a cannula tube which has a proximal tube portion with a proximal opening and a distal tube portion having a distal opening , characterised in that the proximal tube portion and the distal tube portion are connected to one another by way of an axially air-permeable joint that facilitates at least restricted mobility and, in particular, pivotability of the axis of the distal tube portion with respect to the axis of the proximal tube portion , wherein the cannula tube has a fillable cuff on its outer periphery for sealing and soft fixing the cannula tube in the trachea, wherein the joint is arranged in a region, which is delimited by the outer distal and proximal fastening edges of the cuff, characterised in that the joint is formed as a tube portion, wherein the tube portion with respect to the proximal and distal tube portions has a smaller wall thickness.
Control method relating to a communication between two devices, wherein the protocol of said communication comprises at least one transaction, known as the first transaction, and at least one subsequent transaction, known as the second transaction, said method comprising the following steps: - during said first transaction one of said devices, known as the first device, transmits to the other device, known as the second device, a maximum acceptable delay time between the end of the first transaction and the start of said second transaction, and - said second device triggers a timer for said delay time, characterized in that , during said first transaction, said first device furthermore transmits to the second device an explicit indication of the type of message characterizing said start of the second transaction. - during said first transaction one of said devices, known as the first device, transmits to the other device, known as the second device, a maximum acceptable delay time between the end of the first transaction and the start of said second transaction, and - said second device triggers a timer for said delay time,
Method for operating an injection-moulding machine comprising the steps: a) in a current injection-moulding cycle, after an accepted-part reference injection-moulding cycle learned in a learning phase: detecting a compound pressure change k 1 with respect to an accepted-part reference compound pressure p masse,ref during at least a part of an injection phase of the current injection-moulding cycle by measuring a current compound pressure p masse,act and comparing the current compound pressure p masse,act with the accepted-part reference compound pressure p masse,ref , b) determining a target mould internal pressure curve p wkz,soll (t) for a holding-pressure phase of the current injection-moulding cycle, wherein for this purpose a mould internal pressure curve p wkz,ref (t) of the accepted-part reference injection-moulding cycle is adjusted at least depending on the compound pressure change k 1 detected in step a) and c) travelling the holding-pressure curve p masse,Hld,act (t) of the current injection-moulding cycle in such a manner that an actual mould internal pressure curve p wkz,act (t) of the current injection-moulding cycle runs at least more closely along the target mould internal pressure curve p wkz,soll (t) than a mould internal pressure curve p wkz,ref (t) that is unchanged with respect to the accepted-part reference cycle. a) in a current injection-moulding cycle, after an accepted-part reference injection-moulding cycle learned in a learning phase: detecting a compound pressure change k 1 with respect to an accepted-part reference compound pressure p masse,ref during at least a part of an injection phase of the current injection-moulding cycle by measuring a current compound pressure p masse,act and comparing the current compound pressure p masse,act with the accepted-part reference compound pressure p masse,ref , b) determining a target mould internal pressure curve p wkz,soll (t) for a holding-pressure phase of the current injection-moulding cycle, wherein for this purpose a mould internal pressure curve p wkz,ref (t) of the accepted-part reference injection-moulding cycle is adjusted at least depending on the compound pressure change k 1 detected in step a) and c) travelling the holding-pressure curve p masse,Hld,act (t) of the current injection-moulding cycle in such a manner that an actual mould internal pressure curve p wkz,act (t) of the current injection-moulding cycle runs at least more closely along the target mould internal pressure curve p wkz,soll (t) than a mould internal pressure curve p wkz,ref (t) that is unchanged with respect to the accepted-part reference cycle.
A non-pneumatic tire (100; 200; 300; 400; 500; 600; 700), comprising: an annular outer surface; an annular inner surface; support structure (112a, 112b, 112c; 412) extending from the annular outer surface to the annular inner surface; a plurality of shear elements (114; 212; 315; 418) extending circumferentially around the annular outer surface and spaced laterally apart from each other, wherein each shear element (114; 212; 315; 418; 530; 625; 720) includes a substantially inelastic lower region, a substantially inelastic upper region, and an elastic region disposed between the substantially inelastic lower region and the substantially inelastic upper region and being continuously solid circumferentially, and a tread layer (116; 214; 316; 535; 630; 725) extending circumferentially around the plurality of shear elements (114; 212; 315; 418; 530; 625; 720), and wherein the support structure (112a, 112b, 112c; 412) includes a plurality of spoke rings and wherein each shear element (114; 212; 315; 418; 530; 625; 720) extends circumferentially around an annular outer surface of a corresponding spoke ring . an annular outer surface; an annular inner surface; support structure (112a, 112b, 112c; 412) extending from the annular outer surface to the annular inner surface; a plurality of shear elements (114; 212; 315; 418) extending circumferentially around the annular outer surface and spaced laterally apart from each other, wherein each shear element (114; 212; 315; 418; 530; 625; 720) includes a substantially inelastic lower region, a substantially inelastic upper region, and an elastic region disposed between the substantially inelastic lower region and the substantially inelastic upper region and being continuously solid circumferentially, and a tread layer (116; 214; 316; 535; 630; 725) extending circumferentially around the plurality of shear elements (114; 212; 315; 418; 530; 625; 720), and wherein the support structure (112a, 112b, 112c; 412) includes a plurality of spoke rings and wherein each shear element (114; 212; 315; 418; 530; 625; 720) extends circumferentially around an annular outer surface of a corresponding spoke ring .
A medical instrument system, comprising: an elongate instrument ; a first optical sensor coupled to the elongate instrument ; a second optical sensor coupled to the elongate instrument in a known geometric relationship to the first optical sensor ; a controller operatively coupled to the first and second optical sensors ; wherein each of the first and second optical sensors comprises an optical fiber that includes a fiber core having a plurality of axially-spaced Bragg gratings and wherein the plurality of axially-spaced Bragg gratings comprises continuous or substantially continuous Bragg gratings written on the at least one fiber core; characterized in that the controller is configured to conduct an error analysis by comparing signals received from the first and second optical sensors ; and wherein the error analysis is a common mode error analysis. an elongate instrument ; a first optical sensor coupled to the elongate instrument ; a second optical sensor coupled to the elongate instrument in a known geometric relationship to the first optical sensor ; a controller operatively coupled to the first and second optical sensors ;
A device for separating a sample by chromatography, the device comprising: a wall having a wetted surface exposed to a mobile phase including the sample during chromatographic separation, wherein the wetted surface of the wall includes an alloy material comprising the following constituents: 32 wt%-38 wt% cobalt; 32 wt%-38 wt% nickel; 17 wt%-23 wt% chromium; and 7 wt%-13 wt% molybdenum; and a remainder being limited to a total of 5 wt% and limited in an amount of titanium to 0.1 wt%. a wall having a wetted surface exposed to a mobile phase including the sample during chromatographic separation, wherein the wetted surface of the wall includes an alloy material comprising the following constituents: 32 wt%-38 wt% cobalt; 32 wt%-38 wt% nickel; 17 wt%-23 wt% chromium; and 7 wt%-13 wt% molybdenum; and 32 wt%-38 wt% cobalt; 32 wt%-38 wt% nickel; 17 wt%-23 wt% chromium; and 7 wt%-13 wt% molybdenum; and a remainder being limited to a total of 5 wt% and limited in an amount of titanium to 0.1 wt%.
A method for manufacturing a metal part by casting a metal alloy in a mould, wherein an abacus (A1, A2) providing a risk of the appearance of recrystallized grains during casting/solidification of the metal part is determined prior to said casting, as a function of temperature conditions and plastic energy of deformation undergone by said metal part, said abacus being obtained by implementing the following steps: - (E1, E1') a mechanical test on a specimen so as to characterise a plastic deformation of said specimen as a function of different values of imposed stresses; - (E2) a heat treatment on said specimen , then macrographic etching to determine the appearance of recrystallised grains in the specimen ; and - (E3, E3') calculation, as a function of the stress values measured during the mechanical testing, of the plastic deformation energy in the specimen , the plastic deformation energy being plotted as a function of temperature during the mechanical test, with information relating to the presence of recrystallised grains, so as to form the abacus ; the casting of the metal alloy in the mould then being carried out so that the conditions of temperature and plastic deformation energy undergone by said metal part to be manufactured are below a given threshold of risk of appearance of recrystallised grains determined according to the abacus (A1, A2). - (E1, E1') a mechanical test on a specimen so as to characterise a plastic deformation of said specimen as a function of different values of imposed stresses; - (E2) a heat treatment on said specimen , then macrographic etching to determine the appearance of recrystallised grains in the specimen ; and - (E3, E3') calculation, as a function of the stress values measured during the mechanical testing, of the plastic deformation energy in the specimen , the plastic deformation energy being plotted as a function of temperature during the mechanical test, with information relating to the presence of recrystallised grains, so as to form the abacus ;
A supply air nozzle intended to be installed in the sleeve of a supply air duct and through which supply air is discharged into a room, and which supply air nozzle has several chambers, whereby the supply air nozzle is divided into chambers by one or more partition walls wind upwards round a central shaft , which partition walls of the supply air nozzle extend from an inlet to a discharge outlet in the form of a spiral, and characterized in that the body of the supply air nozzle forms a stepped structure, wherein the shape of the body, and the upward-spiraling partition walls divide the supply air flow (qv) into partial air flows.
Magazine apparatus for feeding insert parts into an injection moulding tool , comprising - a drum magazine having multiple magazine tubes , which are arranged at different circumferential positions on the drum magazine , extend in an axial direction of the drum magazine and are designed to take up the insert parts in a manner arranged one on top of another in a respective row; - a magazine take-up means for taking up the drum magazine by way of a through-opening ; - a rotating device for rotating the drum magazine , which rotating device is designed to rotate the respective magazine tubes into a feed position when the drum magazine is arranged on the magazine take-up means , in which feed position the respective magazine tubes are arranged above the through-opening ; - a separating device , which is designed to separate out the respective insert parts arranged in the magazine tubes and to release them in the direction of the through-opening in the magazine take-up means . - a drum magazine having multiple magazine tubes , which are arranged at different circumferential positions on the drum magazine , extend in an axial direction of the drum magazine and are designed to take up the insert parts in a manner arranged one on top of another in a respective row; - a magazine take-up means for taking up the drum magazine by way of a through-opening ; - a rotating device for rotating the drum magazine , which rotating device is designed to rotate the respective magazine tubes into a feed position when the drum magazine is arranged on the magazine take-up means , in which feed position the respective magazine tubes are arranged above the through-opening ; - a separating device , which is designed to separate out the respective insert parts arranged in the magazine tubes and to release them in the direction of the through-opening in the magazine take-up means .
A liquid ejecting head comprising: a tank capable of storing liquid; a main body part to which the tank is attached; and an elastic member provided between the tank and the main body part and forming a seal between the tank and the main body part , wherein the bottom of the main body part includes a first region adjacent to a wall standing from an end portion of the bottom and a second region extending along an edge of the bottom where no wall is formed that stands from the bottom, characterized in that the tank is attached to the bottom of the main body part by screws attached to the first region and the second region, and the number of the screws attached to the second region is greater than the number of the screws attached to the first region. a tank capable of storing liquid; a main body part to which the tank is attached; and an elastic member provided between the tank and the main body part and forming a seal between the tank and the main body part , wherein the bottom of the main body part includes a first region adjacent to a wall standing from an end portion of the bottom and a second region extending along an edge of the bottom where no wall is formed that stands from the bottom, characterized in that the tank is attached to the bottom of the main body part by screws attached to the first region and the second region, and the number of the screws attached to the second region is greater than the number of the screws attached to the first region.