mhurhangee/patent-ind-claim-en huggingface dataset:
A multimode optical fiber comprising: a central multimode core region comprising maximum refractive index delta percent Δ 1 and a radius R 1 ; a cladding comprising an outer radius R clad , the cladding comprising: a first inner annular region surrounding said core region comprising refractive index delta percent Δ 2 and a radius R 2 , wherein R 2 > R 1 ; a depressed-index annular region surrounding said inner annular region and comprising Δ 3 and a radius R 3 , wherein R 3 > R 2 , and a third annular region comprising refractive index delta percent Δ 4 which is greater than Δ 2 at a radial point less than or equal to 45 microns from the center of the fiber, the third annular region surrounding the depressed annular region; wherein Δ 1MAX > Δ 4 > Δ 2 > Δ 3 , wherein the third annular region has an outer radius R 4 ; and characterised in that , wherein R 4 = R clad , and wherein the difference between Δ 4 and Δ 2 is greater than or equal to 0.03 delta percent. a central multimode core region comprising maximum refractive index delta percent Δ 1 and a radius R 1 ; a cladding comprising an outer radius R clad , the cladding comprising: a first inner annular region surrounding said core region comprising refractive index delta percent Δ 2 and a radius R 2 , wherein R 2 > R 1 ; a depressed-index annular region surrounding said inner annular region and comprising Δ 3 and a radius R 3 , wherein R 3 > R 2 , and a third annular region comprising refractive index delta percent Δ 4 which is greater than Δ 2 at a radial point less than or equal to 45 microns from the center of the fiber, the third annular region surrounding the depressed annular region; wherein Δ 1MAX > Δ 4 > Δ 2 > Δ 3 , wherein the third annular region has an outer radius R 4 ; and a first inner annular region surrounding said core region comprising refractive index delta percent Δ 2 and a radius R 2 , wherein R 2 > R 1 ; a depressed-index annular region surrounding said inner annular region and comprising Δ 3 and a radius R 3 , wherein R 3 > R 2 , and a third annular region comprising refractive index delta percent Δ 4 which is greater than Δ 2 at a radial point less than or equal to 45 microns from the center of the fiber, the third annular region surrounding the depressed annular region; wherein Δ 1MAX > Δ 4 > Δ 2 > Δ 3 , wherein the third annular region has an outer radius R 4 ; and
A hydrogenated conjugated diene-based rubber having a hydrogenation rate of butadiene unit of 90% or more, wherein the conjugated diene-based rubber is a copolymerized rubber of the conjugated diene compound and an aromatic vinyl compound having a randomly copolymerized portion in which the conjugated diene compound and the aromatic vinyl compound are irregularly distributed, and wherein, in the molecular weight distribution of the hydrogenated conjugated diene-based rubber as determined by a gel permeation chromatographic method, when a peak area of a molecular weight of 1,000 to 250,000 is taken as AL and a peak area of a molecular weight of 250,000 or more is taken as AH, the ratio of AL to the total area of AL and AH is 0.5% to 20%.
A system comprising a wall with an opening and an explosion vent mounted in said opening , the system comprising: - a cover being dimensioned to fit on said opening and having a perimeter with an edge adapted to seal the cover against the opening with a sealing element , - at least one spring element for holding the cover in the opening and having a direction of spring action, - opposite retaining surfaces in the opening and the cover acting against the spring action of element , and - wherein the sealing element is positioned against the opening so that the sealing force is directed at least partially crosswise to the direction of the spring action of the spring element , characterized in that the cover has a first surface on its perimeter edge for accommodating the sealing element and a second surface extending outwards from the first surface and forming a flange having larger dimensions than the first surface , the at least one spring element is attached on the cover on a surface that is on an opposite side of the cover in relation to the flange , and the spring element is at least one leaf spring extending over the perimeter of the cover . - a cover being dimensioned to fit on said opening and having a perimeter with an edge adapted to seal the cover against the opening with a sealing element , - at least one spring element for holding the cover in the opening and having a direction of spring action, - opposite retaining surfaces in the opening and the cover acting against the spring action of element , and - wherein the sealing element is positioned against the opening so that the sealing force is directed at least partially crosswise to the direction of the spring action of the spring element ,
Device for taking samples of bone matter, which device is intended to be mounted on a rotary tool such as a portable power tool, an orthopedic drill, or even a dental motor, the device comprising: - a support part positioned at the proximal end of the device , the support part being equipped with means for coupling to the rotary tool, so as to rotationally drive the device ; and - a trephine mounted removably on the support part , the trephine being equipped at its distal end with a cutting head intended to come into contact with the bone matter; the trephine and the support part being hollow and together defining an internal housing within the device ; the cutting head comprising at its free end an opening opening to the outside of the device , the opening being in fluidic connection with the internal housing ; characterized in that the device comprises: - a removable collecting tube , positioned within the internal housing of the device and open at one of its ends substantially facing the opening of the cutting head , the collecting tube being intended to collect the bone matter cut by the trephine . - a support part positioned at the proximal end of the device , the support part being equipped with means for coupling to the rotary tool, so as to rotationally drive the device ; and - a trephine mounted removably on the support part , the trephine being equipped at its distal end with a cutting head intended to come into contact with the bone matter; the trephine and the support part being hollow and together defining an internal housing within the device ; the cutting head comprising at its free end an opening opening to the outside of the device , the opening being in fluidic connection with the internal housing ; characterized in that the device comprises: - a removable collecting tube , positioned within the internal housing of the device and open at one of its ends substantially facing the opening of the cutting head , the collecting tube being intended to collect the bone matter cut by the trephine . - a removable collecting tube , positioned within the internal housing of the device and open at one of its ends substantially facing the opening of the cutting head , the collecting tube being intended to collect the bone matter cut by the trephine .
Method for feeding electric energy into an electric power supply network by means of a wind turbine , wherein - the wind turbine generates electric power (P) from wind having a variable wind speed by means of an aerodynamic rotor and a generator and feeds it at least partially into the electric power supply network and/or uses it at least partially for powering electric devices of the wind turbine, wherein - the generated electric real power (P) is set as a function of an ambient temperature (T) and/or wherein - the rotor has a variable rotational speed and the rotational speed, is set as a function of the ambient temperature (T), and wherein - the rotational speed and/or the generated electric real power (P) is reduced when the temperature falls below a first limit temperature and is reduced more and more as the temperature falls further, characterized in that the wind turbine is shut down when a second limit temperature is reached, which is less than the first limit temperature, or is operated in an operating state in which only as much power is generated as is required for powering the electric devices or a portion thereof, and the total generated electric power is used for powering the electric devices, wherein the wind turbine is prepared to feed-in reactive power (Q) and controls the feed-in of the reactive power as a function of the ambient temperature in such a way that the feed-in reactive power is reduced after the first limit temperature has been reached as the temperature falls further. - the wind turbine generates electric power (P) from wind having a variable wind speed by means of an aerodynamic rotor and a generator and feeds it at least partially into the electric power supply network and/or uses it at least partially for powering electric devices of the wind turbine, - the generated electric real power (P) is set as a function of an ambient temperature (T) and/or wherein - the rotor has a variable rotational speed and the rotational speed, is set as a function of the ambient temperature (T), and wherein - the rotational speed and/or the generated electric real power (P) is reduced when the temperature falls below a first limit temperature and is reduced more and more as the temperature falls further,
Method for transmitting information by means of entangled quanta capable of interference, namely by means of idler quanta entangled with signal quanta, characterized in that an arrangement is used which a) provides for at least one spatial superposition within the system space "paths"; b) provides for a temporal superposition of quantum operations (quantum eraser), which eliminates the unambiguous assignment of information about the paths of spatial superposition within the relativistic causality space; c) provides for a superposition (carrier superposition) of a measurable and controllable attribute of the entangled quanta, e.g. B. of their polarization; d) provides a method for manipulating this attribute with the phase solution space of the path integrals of the system of entangled quanta, namely in the idler subsystem; e) in the signal subsystem, two exit modes are provided for measuring the interference, and in the idler subsystem only the spatial superposition of exit modes without interference measurement is provided for, and in changing the attribute in the idler subsystem using the manipulation method and measuring the changing interference in the signal subsystem. a) provides for at least one spatial superposition within the system space "paths"; b) provides for a temporal superposition of quantum operations (quantum eraser), which eliminates the unambiguous assignment of information about the paths of spatial superposition within the relativistic causality space; c) provides for a superposition (carrier superposition) of a measurable and controllable attribute of the entangled quanta, e.g. B. of their polarization; d) provides a method for manipulating this attribute with the phase solution space of the path integrals of the system of entangled quanta, namely in the idler subsystem; e) in the signal subsystem, two exit modes are provided for measuring the interference, and in the idler subsystem only the spatial superposition of exit modes without interference measurement is provided for,
A method performed by a node configured for use in a communication network, the method comprising: obtaining a message with a source address and a destination address, wherein the message is a message of a Lower Transport Layer according to a Bluetooth Mesh Protocol; determining whether the message is a type of message that is sent in response to a different message routed from the destination address to the source address, and whether a forward route from the destination address to the source address has been established; and transmitting the message on a backward route , responsive to determining that the message is said type of message, and that the forward route from the destination address to the source address has been established, or discarding the message, flooding the message or initiating route discovery back to the destination address, responsive to determining that the message is not said type of message, and that the forward route from the destination address to the source address has not been established, wherein the backward route is determined by reversing the established forward route from the destination address to the source address, instead of performing discovery of the backward route , and wherein the node is an intermediate relay node that is on the forward route and the backward route and that is addressed by neither the source address nor the destination address, wherein obtaining the message comprises receiving the message from another node and wherein transmitting the message on the backward route comprises relaying the message along the backward route . obtaining a message with a source address and a destination address, wherein the message is a message of a Lower Transport Layer according to a Bluetooth Mesh Protocol; determining whether the message is a type of message that is sent in response to a different message routed from the destination address to the source address, and whether a forward route from the destination address to the source address has been established; and transmitting the message on a backward route , responsive to determining that the message is said type of message, and that the forward route from the destination address to the source address has been established, or discarding the message, flooding the message or initiating route discovery back to the destination address, responsive to determining that the message is not said type of message, and that the forward route from the destination address to the source address has not been established, wherein the backward route is determined by reversing the established forward route from the destination address to the source address, instead of performing discovery of the backward route , and wherein the node is an intermediate relay node that is on the forward route and the backward route and that is addressed by neither the source address nor the destination address, wherein obtaining the message comprises receiving the message from another node and wherein transmitting the message on the backward route comprises relaying the message along the backward route .
A method for wireless communications by a user equipment "UE", comprising: receiving radio resource control "RRC" signaling in an anchor resource block "RB" for narrowband communications with a base station "BS"; characterised by : determining a location of at least one additional RB for the narrowband communications with the BS based on a first indication of an absolute frequency location of the at least one additional RB and a second indication of whether the location of the at least one additional RB is an in-band location, a guard band location, or a standalone location, the first indication and second indication received via the RRC signaling in the anchor RB; and performing narrowband communications with the BS using at least one of: the anchor RB or the at least one additional RB. receiving radio resource control "RRC" signaling in an anchor resource block "RB" for narrowband communications with a base station "BS"; characterised by : determining a location of at least one additional RB for the narrowband communications with the BS based on a first indication of an absolute frequency location of the at least one additional RB and a second indication of whether the location of the at least one additional RB is an in-band location, a guard band location, or a standalone location, the first indication and second indication received via the RRC signaling in the anchor RB; and performing narrowband communications with the BS using at least one of: the anchor RB or the at least one additional RB. determining a location of at least one additional RB for the narrowband communications with the BS based on a first indication of an absolute frequency location of the at least one additional RB and a second indication of whether the location of the at least one additional RB is an in-band location, a guard band location, or a standalone location, the first indication and second indication received via the RRC signaling in the anchor RB; and performing narrowband communications with the BS using at least one of: the anchor RB or the at least one additional RB.
Motor-adjustable steering column for a motor vehicle, comprising a support unit which can be attached to a vehicle body and by which an adjusting unit is held, in which a steering spindle is mounted rotatably about a longitudinal axis (L), and comprising an adjusting drive which is connected to the support unit and to the adjusting unit , and by which the adjusting unit can be adjusted relative to the support unit , the adjusting drive having a threaded spindle engaging in a spindle nut and a drive unit , by which the threaded spindle can be driven in rotation relative to the spindle nut , the adjusting unit having a casing unit in which a casing tube , in which the steering spindle is mounted, is accommodated so as to be adjustable telescopically in the direction of the longitudinal axis (L), and the adjusting drive for longitudinal adjustment is effectively arranged between the casing unit and the casing tube , a gear unit being attached to the casing unit , and a part of the spindle drive which can be moved in translation relative thereto being connected to the casing tube , characterized in in that the drive unit is connected via a flexible drive connection to the gear unit which can be displaced spatially relative to the drive unit . the adjusting unit having a casing unit in which a casing tube , in which the steering spindle is mounted, is accommodated so as to be adjustable telescopically in the direction of the longitudinal axis (L), and the adjusting drive for longitudinal adjustment is effectively arranged between the casing unit and the casing tube , a gear unit being attached to the casing unit , and a part of the spindle drive which can be moved in translation relative thereto being connected to the casing tube , characterized in in that the drive unit is connected via a flexible drive connection to the gear unit which can be displaced spatially relative to the drive unit .
A scar-reducing bandage or dressing for treatment of hypertrophic scars and keloids, the bandage or dressing comprising: a lower carrier layer , an upper carrier layer that is skin-friendly, wherein the upper carrier layer comprises a skin-friendly adhesive edge or skin-friendly adhesive strips to hold a user's skin in position, and characterized in that the bandage or dressing further comprises : (a) one or more pressure-applying springs with each spring having one or more spring arms that transfer force permanently to a spring base ; and (b) the spring base , wherein the spring base comprises: the lower carrier layer which comprises a breathable polyurethane matrix; and the upper carrier layer , wherein a permanent pressure from the one or more springs can be implemented in the same position on the spring base , wherein the lower carrier layer is self-adhesive under the one or more springs, wherein the one or more pressure-applying springs is sandwiched between the lower carrier layer and the upper carrier layer . a lower carrier layer , an upper carrier layer that is skin-friendly, wherein the upper carrier layer comprises a skin-friendly adhesive edge or skin-friendly adhesive strips to hold a user's skin in position, and characterized in that the bandage or dressing further comprises : (a) one or more pressure-applying springs with each spring having one or more spring arms that transfer force permanently to a spring base ; and (b) the spring base , wherein the upper carrier layer comprises a skin-friendly adhesive edge or skin-friendly adhesive strips to hold a user's skin in position, and characterized in that the bandage or dressing further comprises : (a) one or more pressure-applying springs with each spring having one or more spring arms that transfer force permanently to a spring base ; and (b) the spring base , (a) one or more pressure-applying springs with each spring having one or more spring arms that transfer force permanently to a spring base ; and (b) the spring base , the lower carrier layer which comprises a breathable polyurethane matrix; and the upper carrier layer , wherein a permanent pressure from the one or more springs can be implemented in the same position on the spring base , wherein the lower carrier layer is self-adhesive under the one or more springs, wherein the one or more pressure-applying springs is sandwiched between the lower carrier layer and the upper carrier layer . wherein a permanent pressure from the one or more springs can be implemented in the same position on the spring base , wherein the lower carrier layer is self-adhesive under the one or more springs, wherein the one or more pressure-applying springs is sandwiched between the lower carrier layer and the upper carrier layer .
An apparatus for producing a solid electrolyte, comprising a grinder for reacting raw materials comprising at least lithium sulfide and other sulfides in a hydrocarbon solvent while grinding the raw material, a reaction vessel for reacting raw materials comprising at least lithium sulfide and other sulfides in a hydrocarbon solvent by stirring the raw materials with a stirring blade, and a connecting pipe for circulating the raw materials between the grinder and the reaction vessel during the reaction.
A razor cartridge comprising: a housing ; a trailing blade assembly mounted to the housing, the trailing blade assembly comprising a trailing blade with a blade tip (18b-1); a leading blade assembly mounted to the housing in front of the trailing blade assembly, the leading blade assembly comprising a leading blade with a blade tip (18a-1); and a skin support element affixed to the leading blade assembly and extending towards the blade tip of the trailing blade assembly, wherein a horizontal length (L1) of the skin support element is greater than a distance from a trailing part of the skin support element to the blade tip of the trailing blade assembly (18b-1) ), and the skin support element is affixed to the leading blade , characterized in that the leading blade is coupled to a leading blade support member , the skin support element extending past the leading blade support member. a housing ; a trailing blade assembly mounted to the housing, the trailing blade assembly comprising a trailing blade with a blade tip (18b-1); a leading blade assembly mounted to the housing in front of the trailing blade assembly, the leading blade assembly comprising a leading blade with a blade tip (18a-1); and a skin support element affixed to the leading blade assembly and extending towards the blade tip of the trailing blade assembly, wherein a horizontal length (L1) of the skin support element is greater than a distance from a trailing part of the skin support element to the blade tip of the trailing blade assembly (18b-1) ), and the skin support element is affixed to the leading blade , characterized in that the leading blade is coupled to a leading blade support member , the skin support element extending past the leading blade support member.
A copolymer comprising, (A) allyloxycarboxyl substituted benzopinacol monomer of formula (I) and (B) at least one ethylenically unsaturated monomer, in copolymerized from. (A) allyloxycarboxyl substituted benzopinacol monomer of formula (I) and (B) at least one ethylenically unsaturated monomer,