mhurhangee/patent-ind-claim-en huggingface dataset:
Device for generative manufacturing of three-dimensional objects from powdery construction material by introducing radiation energy in a construction process, wherein the device is a laser sintering and/or laser melting device, comprising at least one housing having a process chamber in which an exchangeable container having a height-adjustable construction platform is arranged, onto which the powdery construction material , provided for hardening by means of radiation energy, can be applied, characterized by a memory chip which can be removed from process chamber of the device together with the exchangeable container and can be read out via an electronic reading device , wherein the exchangeable container is provided with the memory chip , on which data for controlling at least one drive motor of the exchangeable container for moving the exchangeable container are stored.
A method of manufacturing a modulated optically diffractive grating for a near-to-eye display or head-up display, comprising - providing a substrate , - manufacturing a plurality of temporary elements onto the substrate , the temporary elements being arranged in a periodic pattern comprising at least two subsections (d) having different element characteristics, - depositing onto the substrate a first deposition layer so as to at least partially cover the temporary elements with the first deposition layer , - removing the temporary elements from the substrate in order to form onto the substrate a modulated diffractive grating of first grating elements made of the first deposition layer , the grating comprising within each subsection (d) of the periodic pattern a plurality of first grating elements and one or more gaps between the first grating elements , - depositing onto the substrate a second deposition layer after removing the temporary elements in order to at least partially fill said gaps within each subsection (d) of the periodic pattern. - providing a substrate , - manufacturing a plurality of temporary elements onto the substrate , the temporary elements being arranged in a periodic pattern comprising at least two subsections (d) having different element characteristics, - depositing onto the substrate a first deposition layer so as to at least partially cover the temporary elements with the first deposition layer , - removing the temporary elements from the substrate in order to form onto the substrate a modulated diffractive grating of first grating elements made of the first deposition layer , the grating comprising within each subsection (d) of the periodic pattern a plurality of first grating elements and one or more gaps between the first grating elements , - depositing onto the substrate a second deposition layer after removing the temporary elements in order to at least partially fill said gaps within each subsection (d) of the periodic pattern.
A method for an access node (110A; 110B) of a mobile communication system to configure secondary coverage in the mobile communication system, the method comprising: transmitting configuration information to cause a first mobile device (105A; 105F; 105G) to transmit a secondary coverage signal (720; 725), the first mobile device being connected to the access node and having primary coverage (505A; 505B) from the access node, and the secondary coverage signal indicating that the first mobile device is able to provide secondary coverage in the mobile communication system to other mobile devices not having primary coverage (505A; 505B) from any access node of the mobile communication system; receiving a message from the first mobile device reporting that a presence indication, PI, has been received, by the first mobile device in response to transmitting the secondary coverage signal, from a second mobile device (105B; 105C; 105K; 105L) not having primary coverage (505A; 505B) from any access node of the mobile communication system; and in response to receiving the message, configuring the first mobile device to enable relay node functionality at the first mobile device to provide secondary coverage to the second mobile device. transmitting configuration information to cause a first mobile device (105A; 105F; 105G) to transmit a secondary coverage signal (720; 725), the first mobile device being connected to the access node and having primary coverage (505A; 505B) from the access node, and the secondary coverage signal indicating that the first mobile device is able to provide secondary coverage in the mobile communication system to other mobile devices not having primary coverage (505A; 505B) from any access node of the mobile communication system; receiving a message from the first mobile device reporting that a presence indication, PI, has been received, by the first mobile device in response to transmitting the secondary coverage signal, from a second mobile device (105B; 105C; 105K; 105L) not having primary coverage (505A; 505B) from any access node of the mobile communication system; and in response to receiving the message, configuring the first mobile device to enable relay node functionality at the first mobile device to provide secondary coverage to the second mobile device.
A thermal insulation plate , which is manufactured from cellular plastic, and which comprises a lower surface , an upper surface and side surfaces delimiting the surfaces, of which the upper surface comprises grooves , which are arranged in two directions over the area of the entire surface, wherein the thermal insulation plate comprises at least in a part of the groove intersections a spacer for installing reinforcement, which is formed from thermal insulation material as a fixed part of the thermal insulation plate, and the spacer comprises a cavity in the middle of the spacer, which cavity is a groove extending through the spacer, whereby it is open at the side surfaces of the spacer, characterized in that the spacer is arranged in the centre of the groove intersection, so that a recess surrounds the entire spacer , and that the cavity is arranged in the spacer substantially through the entire height of the spacer, and in that the cavity is arranged in a different direction than the grooves in the thermal insulation plate.
A compound of formula (III): wherein R 1 and R 2 are identical and are a bromine atom or a chlorine atom; R 3 is a fluorine atom, a chlorine atom, a bromine atom, an iodine atom or a methyl. R 1 and R 2 are identical and are a bromine atom or a chlorine atom; R 3 is a fluorine atom, a chlorine atom, a bromine atom, an iodine atom or a methyl.
A beverage dispenser, comprising a dispenser body , a water tank , a control device used for controlling the beverage dispenser to operate and a water volume detection device disposed on the dispenser body , wherein the water volume detection device comprises: a substrate located on the dispenser body; a mobile plate that supports the water tank; an elastic element disposed between the substrate and the mobile plate ; a first contact member disposed below the mobile plate ; and a second contact member disposed above the substrate ; wherein the mobile plate is disposed above the substrate and moves up and down relative to the substrate with changes of water levels in the water tank , and the first contact member and the second contact member constitute a switch of the control device , characterized in that a side face of the dispenser body is provided thereon with at least one support device connected with the water tank , wherein the support device is provided thereon with a hole slot matching the water tank and the elastic element , and in that the water volume detection device is disposed on one support device therein. a substrate located on the dispenser body; a mobile plate that supports the water tank; an elastic element disposed between the substrate and the mobile plate ; a first contact member disposed below the mobile plate ; and a second contact member disposed above the substrate ; wherein the mobile plate is disposed above the substrate and moves up and down relative to the substrate with changes of water levels in the water tank , and the first contact member and the second contact member constitute a switch of the control device , characterized in that a side face of the dispenser body is provided thereon with at least one support device connected with the water tank , wherein the support device is provided thereon with a hole slot matching the water tank and the elastic element , and in that the water volume detection device is disposed on one support device therein.
An apparatus comprising: a cassette comprising a membrane assembly and side rails ; a plate assembly comprising at least two thermally conductive plates defining a cassette slot between the plates, the plate assembly configured to receive the membrane assembly of the cassette and exchange heat therewith, with the membrane assembly being configured for containing working fluid from an intravascular heat exchange catheter or heat exchange pad , the plate assembly also including rail receptacles (R1', R2') straddling respective sides of the slot and configured for receiving the respective side rails of the cassette, wherein at least a first cavity is formed inboard of a first one of the rail receptacles (R1'), the first cavity having a width (W) at its widest point that is greater than a width (W3) of the slot , wherein when the cassette is engaged with the apparatus with the membrane assembly disposed in the slot and the side rails of the cassette disposed in the rail receptacles (R1', R2'), a first portion of a membrane of the membrane assembly that is inboard of a side rail of the cassette can expand into the first cavity when the membrane assembly is filled with working fluid to thereby establish an enlarged fluid passageway along a vertical side edge of the membrane assembly. a cassette comprising a membrane assembly and side rails ; a plate assembly comprising at least two thermally conductive plates defining a cassette slot between the plates, the plate assembly configured to receive the membrane assembly of the cassette and exchange heat therewith, with the membrane assembly being configured for containing working fluid from an intravascular heat exchange catheter or heat exchange pad , the plate assembly also including rail receptacles (R1', R2') straddling respective sides of the slot and configured for receiving the respective side rails of the cassette, wherein at least a first cavity is formed inboard of a first one of the rail receptacles (R1'), the first cavity having a width (W) at its widest point that is greater than a width (W3) of the slot , wherein when the cassette is engaged with the apparatus with the membrane assembly disposed in the slot and the side rails of the cassette disposed in the rail receptacles (R1', R2'), a first portion of a membrane of the membrane assembly that is inboard of a side rail of the cassette can expand into the first cavity when the membrane assembly is filled with working fluid to thereby establish an enlarged fluid passageway along a vertical side edge of the membrane assembly.
Melter for preparing a molten medium, in particular for preparing a molten adhesive, having a melting tank , wherein the melting tank has a melting chamber for receiving and melting the medium to be melted, wherein the melter has a heating device for heating the melting chamber , wherein the melting chamber has an upper chamber section and a lower chamber section , wherein the melting tank has a dispensing opening , wherein the dispensing opening can be fluidly connected to a delivery device for delivering molten medium, wherein the melting tank has a drain opening , wherein the dispensing opening and the drain opening open into the lower chamber section , wherein the melter has a closure body for closing the drain opening , wherein, in a closed position of the closure body , in which the closure body closes the drain opening , an end section of the closure body projects into the lower chamber section .
A pharmaceutical form with at least one first active substance and at least one emulsifier, wherein the emulsifier is polyethylene glycol glycerides which are prepared by reaction of mono-, di- and/or triglycerides with polyethylene glycol, wherein the polyethylene glycol chain is the hydrophilic part of the emulsifier and is connected with a lipophilic part, wherein the emulsifier has an HLB value of at least 1 and at most 16, wherein the mass ratio of active substance to emulsifier is at least 1 to 30 and at most 1 to 1, and wherein the pharmaceutical form is a layer tablet comprising at least two layers, wherein the first layer is a first compartment and the second layer is a second compartment, wherein the first compartment comprises at least the first active substance and at least the emulsifier, and the emulsifier is not present in the second compartment, wherein the first active substance is cinnarizine or a salt of cinnarizine.
A method for processing samples, the method comprising: providing a loading chamber ; providing a detection chamber positioned in fluid communication with the loading chamber; providing a fluid path defined at least partially by the loading chamber and the detection chamber; positioning a sample in the loading chamber; filtering the sample with a filter positioned in the loading chamber to form a concentrated sample on the filter and a filtrate, the filter having an inlet and an outlet and positioned such that at least one of the inlet and the outlet is positioned in the fluid path, wherein filtering includes applying a pressure differential across the filter; removing the filtrate from the fluid path at a location upstream of the detection chamber; moving at least a portion of the concentrated sample from the filter, in the fluid path, to the detection chamber by centrifugation; and analyzing the at least a portion of the concentrated sample in the detection chamber for an analyte of interest. providing a loading chamber ; providing a detection chamber positioned in fluid communication with the loading chamber; providing a fluid path defined at least partially by the loading chamber and the detection chamber; positioning a sample in the loading chamber; filtering the sample with a filter positioned in the loading chamber to form a concentrated sample on the filter and a filtrate, the filter having an inlet and an outlet and positioned such that at least one of the inlet and the outlet is positioned in the fluid path, wherein filtering includes applying a pressure differential across the filter; removing the filtrate from the fluid path at a location upstream of the detection chamber; moving at least a portion of the concentrated sample from the filter, in the fluid path, to the detection chamber by centrifugation; and analyzing the at least a portion of the concentrated sample in the detection chamber for an analyte of interest.
A battery pack comprising: a plurality of battery cells ; a case providing an accommodation space (A) for accommodating the battery cells and a cooling fluid for cooling the battery cells (10; and a barrier wall extending across the accommodation space (A) and dividing the accommodation space (A) into an upstream area (A1) in communication with an inlet (I) for the cooling fluid and a downstream area (A2) in communication with an outlet (O) for the cooling fluid, the barrier wall providing a communication area (CN) where the upstream area (A1) and the downstream area (A2) communicate with each other, the inlet (I) and the outlet (O) being at a portion of the case corresponding to a first end of the barrier wall in an extension direction of the barrier wall , the communication area (CN) being at a second end of the barrier wall in the extension direction of the barrier wall . a plurality of battery cells ; a case providing an accommodation space (A) for accommodating the battery cells and a cooling fluid for cooling the battery cells (10; and a barrier wall extending across the accommodation space (A) and dividing the accommodation space (A) into an upstream area (A1) in communication with an inlet (I) for the cooling fluid and a downstream area (A2) in communication with an outlet (O) for the cooling fluid, the barrier wall providing a communication area (CN) where the upstream area (A1) and the downstream area (A2) communicate with each other, the inlet (I) and the outlet (O) being at a portion of the case corresponding to a first end of the barrier wall in an extension direction of the barrier wall , the communication area (CN) being at a second end of the barrier wall in the extension direction of the barrier wall .
A method for the manufacture of bisphenol A comprising: a) reacting phenol and acetone in the presence of an acidic catalyst to form a reaction product comprising an initial concentration of bisphenol A and an initial concentration of impurities; b) diluting the reaction product with phenol, water and/or acetone, so as to decrease the impurity concentration to 50 % or less of the initial concentration of impurities, and adding bisphenol A to increase the concentration thereof in the reaction product; and thereafter c) crystallising a bisphenol A/phenol adduct from the reaction product to produce a crystallised bisphenol A product. a) reacting phenol and acetone in the presence of an acidic catalyst to form a reaction product comprising an initial concentration of bisphenol A and an initial concentration of impurities; b) diluting the reaction product with phenol, water and/or acetone, so as to decrease the impurity concentration to 50 % or less of the initial concentration of impurities, and adding bisphenol A to increase the concentration thereof in the reaction product; and thereafter c) crystallising a bisphenol A/phenol adduct from the reaction product to produce a crystallised bisphenol A product.
A method of managing a power state of a wireless station, in the following also referred to as STA , for cooperative multi-band operation between the STA and a wireless access point, in the following also referred to as AP , for a wireless network, the method comprising: receiving a frame transmitted from the AP to the STA over a first band, said frame comprising a Frame Control field comprising a More Data, in the following also referred to as MD, field indicating a buffer status of a second band; and updating a power management mode of the STA for the second band according to the buffer status of the second band received from the STA over the first band. receiving a frame transmitted from the AP to the STA over a first band, said frame comprising a Frame Control field comprising a More Data, in the following also referred to as MD, field indicating a buffer status of a second band; and updating a power management mode of the STA for the second band according to the buffer status of the second band received from the STA over the first band.
An automatic analysis device configured to react a specimen with a reagent and to measure the reacted reaction solution, the device comprising: a processing unit configure to perform a treatment on a specimen before the analysis of the specimen; supply equipment configured to supply the reagent to a reaction vessel disposed in the processing unit; a liquid temperature adjusting device configured to adjust the temperature of the reagent supplied to the reaction vessel by the supply equipment; a first temperature detection unit configured to detect a temperature of the air within the processing unit, wherein the liquid temperature adjusting device is configured to execute temperature adjustment of the reagent based on a first temperature detected by the first temperature detection unit ; a second temperature detection unit which is disposed within the liquid temperature adjusting device and is configured to detect the temperature of the reagent supplied to the processing unit; and, an estimation unit configured to estimate a calorific value of a heating element present within the automatic analysis device, wherein the liquid temperature adjusting device is configured to acquire a target value of a second temperature detected by the second temperature detection unit based on the first temperature and based on a change in the calorific value estimated by the estimation unit and to execute temperature adjustment based on a difference between the second temperature and the target value. a processing unit configure to perform a treatment on a specimen before the analysis of the specimen; supply equipment configured to supply the reagent to a reaction vessel disposed in the processing unit; a liquid temperature adjusting device configured to adjust the temperature of the reagent supplied to the reaction vessel by the supply equipment; a first temperature detection unit configured to detect a temperature of the air within the processing unit, wherein the liquid temperature adjusting device is configured to execute temperature adjustment of the reagent based on a first temperature detected by the first temperature detection unit ; a second temperature detection unit which is disposed within the liquid temperature adjusting device and is configured to detect the temperature of the reagent supplied to the processing unit; and, an estimation unit configured to estimate a calorific value of a heating element present within the automatic analysis device, wherein the liquid temperature adjusting device is configured to acquire a target value of a second temperature detected by the second temperature detection unit based on the first temperature and based on a change in the calorific value estimated by the estimation unit and to execute temperature adjustment based on a difference between the second temperature and the target value.
A method for sector selection performed in a communication system providing wireless communication to a communication device , the communication system being configured for shared cell deployment, the shared cell comprising at least two sectors , the communication system being configured for link adaptation of a radio link between the communication device and the shared cell wherein the link adaptation comprises a downlink link adaptation, the method comprising: - selecting , for the communication device , a set of sectors for use in downlink transmissions to the communication device , - determining , for the communication device , a link adaptation parameter value relating to the link adaptation wherein the link adaptation parameter value comprises a block error rate, and wherein the determining comprises determining a block error rate for the communication device based on feedback reports relating to downlink transmissions to the communication device , - adapting , for a link adaptation parameter value that is higher than a threshold value, the set of sectors by adding a sector. - selecting , for the communication device , a set of sectors for use in downlink transmissions to the communication device , - determining , for the communication device , a link adaptation parameter value relating to the link adaptation wherein the link adaptation parameter value comprises a block error rate, and wherein the determining comprises determining a block error rate for the communication device based on feedback reports relating to downlink transmissions to the communication device , - adapting , for a link adaptation parameter value that is higher than a threshold value, the set of sectors by adding a sector.
A biologically compatible metallic ion complex with nordihydroguaiaretic acid (NDGA) polymer, said complex comprising a metallic ion and a NDGA moiety, wherein the metallic ion possesses antimicrobial, antifungal, and/or anticancer properties; wherein said metallic ion is bound to the NDGA moiety.