mhurhangee/patent-ind-claim-en huggingface dataset:
Shaft coupling, comprising: a first coupling part having a shaft and a tapered shaft portion , wherein a tool is fixable at a first end of the shaft and a shaft shoulder is arranged at a second end of the shaft; characterized in that the shaft coupling comprises a second coupling part comprising a tapered hub in which the tapered shaft portion can be introduced to form a tapered seat, and comprising a retaining element movable perpendicularly to a rotation axis of the shaft coupling and arranged such that it can engage the shaft shoulder of the shaft ; and at least a spring arranged such that it generates a spring force which, when the retaining element is engaged, acts on the tapered seat in an axial direction and preloads it. a first coupling part having a shaft and a tapered shaft portion , wherein a tool is fixable at a first end of the shaft and a shaft shoulder is arranged at a second end of the shaft; characterized in that the shaft coupling comprises a second coupling part comprising a tapered hub in which the tapered shaft portion can be introduced to form a tapered seat, and comprising a retaining element movable perpendicularly to a rotation axis of the shaft coupling and arranged such that it can engage the shaft shoulder of the shaft ; and at least a spring arranged such that it generates a spring force which, when the retaining element is engaged, acts on the tapered seat in an axial direction and preloads it.
Method for converting uranium hexafluoride (UF 6 ) to uranium dioxide (UO 2 ), the method comprising - the steps of: - hydrolysis of UF 6 to uranium oxyfluoride (UO 2 F 2 ) in a hydrolysis reactor by reaction between gaseous UF 6 and dry water vapor injected into the reactor , - pyrohydrolysis of UO 2 F 2 to UO 2 in a pyrohydrolysis furnace by reaction of U0 2 F 2 with dry water vapor and hydrogen gas (H 2 ) injected into the furnace , and - the extraction of excess gas in the reactor via a capture device comprising several filters , - the periodic unclogging of the filters by injecting a neutral gas into the filters from the outside to the inside of the reactor to remove the powder stuck on the filters , and - the measuring of the relative pressure in the reactor , the conversion method further comprising the implementation of a punctual unclogging of the filters when the relative pressure in the reactor exceeds a predetermined punctual unclogging threshold. - the steps of: - hydrolysis of UF 6 to uranium oxyfluoride (UO 2 F 2 ) in a hydrolysis reactor by reaction between gaseous UF 6 and dry water vapor injected into the reactor , - pyrohydrolysis of UO 2 F 2 to UO 2 in a pyrohydrolysis furnace by reaction of U0 2 F 2 with dry water vapor and hydrogen gas (H 2 ) injected into the furnace , and - hydrolysis of UF 6 to uranium oxyfluoride (UO 2 F 2 ) in a hydrolysis reactor by reaction between gaseous UF 6 and dry water vapor injected into the reactor , - pyrohydrolysis of UO 2 F 2 to UO 2 in a pyrohydrolysis furnace by reaction of U0 2 F 2 with dry water vapor and hydrogen gas (H 2 ) injected into the furnace , and - the extraction of excess gas in the reactor via a capture device comprising several filters , - the periodic unclogging of the filters by injecting a neutral gas into the filters from the outside to the inside of the reactor to remove the powder stuck on the filters , and - the measuring of the relative pressure in the reactor ,
A reference electrode system for a pH-sensor system, the reference electrode system comprising: a first junction , comprising a membrane with a sealed side , an electric wire , a reference electrode , connected to the wire and covered completely, with exception of an end portion , by a sleeve , and a tube that is arranged, at least partly, around the reference electrode , the wire , and the sleeve , wherein the tube has a closed end, which is arranged nearby the end portion of the reference electrode . a first junction , comprising a membrane with a sealed side , an electric wire , a reference electrode , connected to the wire and covered completely, with exception of an end portion , by a sleeve , and a tube that is arranged, at least partly, around the reference electrode , the wire , and the sleeve , wherein the tube has a closed end, which is arranged nearby the end portion of the reference electrode .
A cylindrical battery having a pressure sensor measuring an internal pressure of a secondary battery, comprising: an electrode assembly including a cathode plate, an anode plate, and a separator electrically insulating the cathode plate and the anode plate from each other; the pressure sensor positioned on one side of the electrode assembly and embedded in the cylindrical battery; and a top cap positioned on the other side of the electrode assembly, wherein the pressure sensor has an insulating property, and the pressure sensor includes a non-reversible pressure sensor unit and a reversible pressure sensor unit . an electrode assembly including a cathode plate, an anode plate, and a separator electrically insulating the cathode plate and the anode plate from each other; the pressure sensor positioned on one side of the electrode assembly and embedded in the cylindrical battery; and a top cap positioned on the other side of the electrode assembly, wherein the pressure sensor has an insulating property, and the pressure sensor includes a non-reversible pressure sensor unit and a reversible pressure sensor unit .
A method of forming a silo base of a silo , wherein the silo base has a base portion and at least one ventilation recess , comprising at least the following steps: (i) Application of a flowable, hardenable building material to a substrate to form the base of the silo base, (ii) Embossing of said at least one ventilation recess in the flowable, hardening building material of the base portion, in particular while the flowable building material is hardening and/or before it hardens and/or before it reaches its standard strength and/or after the hardening building material has stiffened, and (iii) Forming the base portion of the silo base by curing the applied building material. (i) Application of a flowable, hardenable building material to a substrate to form the base of the silo base, (ii) Embossing of said at least one ventilation recess in the flowable, hardening building material of the base portion, in particular while the flowable building material is hardening and/or before it hardens and/or before it reaches its standard strength and/or after the hardening building material has stiffened, and (iii) Forming the base portion of the silo base by curing the applied building material.
A method for wireless communications performed by a user equipment, UE, the method comprising: sending a request to connect to a set of network slices, wherein the request comprises at least one priority associated with at least one network slice in the set of network slices; receiving signaling indicating a set of allowed network slices in response to the request; and determining, based on the set of allowed network slices and the at least one priority associated with the at least one network slice, whether to remain connected with a current serving network or to reselect to a new serving network. sending a request to connect to a set of network slices, wherein the request comprises at least one priority associated with at least one network slice in the set of network slices; receiving signaling indicating a set of allowed network slices in response to the request; and determining, based on the set of allowed network slices and the at least one priority associated with the at least one network slice, whether to remain connected with a current serving network or to reselect to a new serving network.
A touch sensing apparatus , comprising: a light transmissive panel that defines a touch surface , an opposite rear surface , and panel sides extending between the touch surface and rear surface, the panel sides defining a perimeter of the light transmissive panel, a plurality of light emitters and detectors arranged along the perimeter and adjacent the panel sides, a light guide arranged along the perimeter and having a first reflective surface comprising a diffusive light scattering element , and a second reflective surface intersecting the first reflective surface at an angle such that light can be reflected from one surface to the other surface, and comprising an extended diffusive light scattering element wherein the light emitters are arranged to emit a respective beam of light onto the diffusive light scattering and/or extended diffusive light scattering element element so as to generate propagating light that diffusively propagates above the touch surface, wherein the light detectors are arranged to receive detection light generated as said propagating light impinges on the diffusive light scattering element and/or the extended diffusive light scattering element and wherein the diffusive light scattering element is arranged at least partly outside the panel sides and extending at least partly above the touch surface. a light transmissive panel that defines a touch surface , an opposite rear surface , and panel sides extending between the touch surface and rear surface, the panel sides defining a perimeter of the light transmissive panel, a plurality of light emitters and detectors arranged along the perimeter and adjacent the panel sides, a light guide arranged along the perimeter and having a first reflective surface comprising a diffusive light scattering element , and a second reflective surface intersecting the first reflective surface at an angle such that light can be reflected from one surface to the other surface, and comprising an extended diffusive light scattering element wherein the light emitters are arranged to emit a respective beam of light onto the diffusive light scattering and/or extended diffusive light scattering element element so as to generate propagating light that diffusively propagates above the touch surface, wherein the light detectors are arranged to receive detection light generated as said propagating light impinges on the diffusive light scattering element and/or the extended diffusive light scattering element and wherein the diffusive light scattering element is arranged at least partly outside the panel sides and extending at least partly above the touch surface.
Splitter device for telecommunications and data technology, comprising a high-pass filter , a low-pass filter , at least one first port , at least one second port and at least one third port , wherein the high-pass filter is arranged between the first port and the third port and the low-pass filter is arranged between the second port and the third port , wherein the splitter device has at least one first switching element on the first port and at least one further switching element on the third port ,the splitter device has at least one overvoltage protection circuit , wherein the at least one overvoltage protection circuit is arranged between the third port and the second switching element and/or between the second port and the low- pass filter , wherein the high-pass filter is situated between the first and third ports for signaling purposes in a first switching position of the first and second switching elements and, in a second switching position, the first and second switching elements are connected to one another directly, characterized in that the splitter device has a control unit which controls the switching elements wherein the control unit is designed in such a way that on picking up a separate DC sequence or a corresponding trigger signal over the first port to switch the switching elements temporarily for a predefined time period or permanently from the first switching position to the second switching position.
A communication method, comprising: generating, by a network device , first indication information, wherein the first indication information is used to indicate one or more frequency hopping bandwidths used by the terminal device to send a physical uplink shared channel resource to the network device ; and sending, by the network device , the first indication information to the terminal device , wherein the network device schedules, in a unit of a slot, the terminal device to send the physical uplink shared channel resource, one slot comprises a first time unit and a second time unit, and the method further comprises: generating, by the network device , second indication information, wherein the second indication information is used to indicate a frequency-domain offset of a physical resource block used by the terminal device to send the physical uplink shared channel to the network device in the second time unit in the frequency hopping bandwidth relative to a physical resource block used by the terminal device to send the physical uplink shared channel to the network device in the first time unit in the same frequency hopping bandwidth; and sending, by the network device , the second indication information to the terminal device. generating, by a network device , first indication information, wherein the first indication information is used to indicate one or more frequency hopping bandwidths used by the terminal device to send a physical uplink shared channel resource to the network device ; and sending, by the network device , the first indication information to the terminal device , wherein the network device schedules, in a unit of a slot, the terminal device to send the physical uplink shared channel resource, one slot comprises a first time unit and a second time unit, and the method further comprises: generating, by the network device , second indication information, wherein the second indication information is used to indicate a frequency-domain offset of a physical resource block used by the terminal device to send the physical uplink shared channel to the network device in the second time unit in the frequency hopping bandwidth relative to a physical resource block used by the terminal device to send the physical uplink shared channel to the network device in the first time unit in the same frequency hopping bandwidth; and sending, by the network device , the second indication information to the terminal device. generating, by the network device , second indication information, wherein the second indication information is used to indicate a frequency-domain offset of a physical resource block used by the terminal device to send the physical uplink shared channel to the network device in the second time unit in the frequency hopping bandwidth relative to a physical resource block used by the terminal device to send the physical uplink shared channel to the network device in the first time unit in the same frequency hopping bandwidth; and sending, by the network device , the second indication information to the terminal device.
A transparent conductive layer for a display device , wherein the transparent conductive layer is formed by a method comprising a step of providing a plurality of nanowires , each nanowire comprising: a core that includes a metal, a first shell on the core , wherein the first shell includes an oxide of the metal of the core or a polymeric material; and a second shell on the first shell , wherein the second shell includes an organic surfactant; characterized in that the method of forming the transparent conductive layer comprises a step of forming a conductive region and a non-conductive region thereby forming a transparent conductive pattern, wherein the conductive region is formed by partially removing, due to surface plasmon resonance by irradiating with light a region of the transparent conductive layer , the shells of the nanowires where the nanowires cross each other such that surfaces of the nanowires are melted and welded together, such that the cores of at least two of the plurality of nanowires are in contact with each other through the first shell and the second shell , and wherein the non-conductive region is formed in a region of the transparent conductive layer which has not been irradiated. a core that includes a metal, a first shell on the core , wherein the first shell includes an oxide of the metal of the core or a polymeric material; and a second shell on the first shell , wherein the second shell includes an organic surfactant; characterized in that the method of forming the transparent conductive layer comprises a step of forming a conductive region and a non-conductive region thereby forming a transparent conductive pattern, wherein the conductive region is formed by partially removing, due to surface plasmon resonance by irradiating with light a region of the transparent conductive layer , the shells of the nanowires where the nanowires cross each other such that surfaces of the nanowires are melted and welded together, such that the cores of at least two of the plurality of nanowires are in contact with each other through the first shell and the second shell , and wherein the non-conductive region is formed in a region of the transparent conductive layer which has not been irradiated.
A surface-emitting, mid-infrared, multi-wavelength laser comprising: at least two circular lasing sections with non-equivalent lengths placed in concentric rings with a common center and separated by an electrical isolation region, wherein: each lasing section defines a distributed feedback, DFB, ring laser comprising : (i) a grating as the DFB element; and (ii) an active region comprising a core with a gain material; wherein the gratings in the at least two circular lasing sections have non-equivalent periods of Bragg wavelengths, and are configured to act as reflectors reflecting the light partly in the plane of the gratings to achieve lasing and partly out of the plane as surface emitting output; and the gain material comprising at least two, compositionally non-identical, layers forming a superlattice, wherein the gain material generates photons by intersubband transitions. each lasing section defines a distributed feedback, DFB, ring laser comprising : (i) a grating as the DFB element; and (ii) an active region comprising a core with a gain material; (i) a grating as the DFB element; and (ii) an active region comprising a core with a gain material; wherein the gratings in the at least two circular lasing sections have non-equivalent periods of Bragg wavelengths, and are configured to act as reflectors reflecting the light partly in the plane of the gratings to achieve lasing and partly out of the plane as surface emitting output; and the gain material comprising at least two, compositionally non-identical, layers forming a superlattice, wherein the gain material generates photons by intersubband transitions.
An information interaction method, characterized by comprising: receiving (S110, S210, S310, S410, S510, S610), by an electronic device, a mail-based collaborating request, wherein the mail-based collaborating request is sent by an inviter party based on a target mail; and creating (S120, S220, S320, S420), by the electronic device, a collaborating group comprising the inviter party and an invitee party according to the mail-based collaborating request, wherein in the collaborating group, the inviter party and the invitee party are able to perform information interaction. receiving (S110, S210, S310, S410, S510, S610), by an electronic device, a mail-based collaborating request, wherein the mail-based collaborating request is sent by an inviter party based on a target mail; and creating (S120, S220, S320, S420), by the electronic device, a collaborating group comprising the inviter party and an invitee party according to the mail-based collaborating request, wherein in the collaborating group, the inviter party and the invitee party are able to perform information interaction.
A glycogen-based polymer comprising at least one repeating unit represented by the following formula (I) wherein each group R, which may be identical or different, is a hydrogen atom, an alkyl group having from 1 to 9 carbon atoms, an alkenyl group having from 2 to 12 carbon atoms, an arylalkyl group having from 7 to 18 carbon atoms, or an arylalkenyl group having from 8 to 18 carbon atoms, the alkyl or alkenyl chain of said groups being optionally substituted by a hydroxyl group and/or interrupted by an oxygen atom, and the aryl residue of said groups being optionally substituted by a halogen atom, provided that at least one of said R group is different from hydrogen, and n is an integer greater than or equal to 1. each group R, which may be identical or different, is a hydrogen atom, an alkyl group having from 1 to 9 carbon atoms, an alkenyl group having from 2 to 12 carbon atoms, an arylalkyl group having from 7 to 18 carbon atoms, or an arylalkenyl group having from 8 to 18 carbon atoms, the alkyl or alkenyl chain of said groups being optionally substituted by a hydroxyl group and/or interrupted by an oxygen atom, and the aryl residue of said groups being optionally substituted by a halogen atom, provided that at least one of said R group is different from hydrogen, and n is an integer greater than or equal to 1.
A method for operating an inductive coupling reader , the method comprising: - applying a first excitation frequency to a resonance circuit of the inductive coupling reader ; - measuring a first amplitude of a first voltage across the resonance circuit of the inductive coupling reader resulting from applying the first excitation frequency; - determining that the first amplitude of the first voltage fails to satisfy a predetermined voltage level; - if the amount of voltage fails to satisfy a threshold or falls below a specified threshold value, detecting a change to the resonance frequency of the resonance circuit of the inductive coupling reader ; and - in response to detecting the change to the resonance frequency of the inductive coupling reader , adjusting the first excitation frequency being applied to the resonance circuit. - applying a first excitation frequency to a resonance circuit of the inductive coupling reader ; - measuring a first amplitude of a first voltage across the resonance circuit of the inductive coupling reader resulting from applying the first excitation frequency; - determining that the first amplitude of the first voltage fails to satisfy a predetermined voltage level; - if the amount of voltage fails to satisfy a threshold or falls below a specified threshold value, detecting a change to the resonance frequency of the resonance circuit of the inductive coupling reader ; and - in response to detecting the change to the resonance frequency of the inductive coupling reader , adjusting the first excitation frequency being applied to the resonance circuit.
A retaining table for use with a fluid processing system comprising: a plate having a generally flat top surface with opposed first and second ends and opposed first and second lateral edges for supporting a disposable container ; a first retaining structure connected to the plate along the first end , a second retaining structure connected to the plate along the second end ; and wherein the first retaining structure further comprises a clip including a base and a mobile jaw pivotally connected to the base , with the base being fixedly or adjustably connected to the plate . a plate having a generally flat top surface with opposed first and second ends and opposed first and second lateral edges for supporting a disposable container ; a first retaining structure connected to the plate along the first end , a second retaining structure connected to the plate along the second end ; and wherein the first retaining structure further comprises a clip including a base and a mobile jaw pivotally connected to the base , with the base being fixedly or adjustably connected to the plate .
A lubricant formulation of carbamoylethyl katiracomprising katira gum in the range of 5% w/v to 10% w/v carbamoylethyl in the range of 5% w/v to 10% w/v and additives.