mhurhangee/patent-ind-claim-en huggingface dataset:
A method implemented at a wireless device, comprising: determining a time unit of a discontinuous reception, DRX, timer based on a plurality of different scheduling units, the time unit of the DRX timer being dependent on the plurality of different scheduling units, the plurality of different scheduling units being associated with a plurality of different numerologies; and determining a time interval indicated by the DRX timer based on the time unit, the time interval being associated with a duration of time for the DRX timer. determining a time unit of a discontinuous reception, DRX, timer based on a plurality of different scheduling units, the time unit of the DRX timer being dependent on the plurality of different scheduling units, the plurality of different scheduling units being associated with a plurality of different numerologies; and determining a time interval indicated by the DRX timer based on the time unit, the time interval being associated with a duration of time for the DRX timer.
A rotor for being accommodated in a rotor chamber of a centrifuge , the rotor comprising: a rotor body configured to hold one or more samples and a rotor cover covering an opening portion of the rotor body ; and characterised by : an inclined surface extending toward a radial outer side of an outer edge of an upper surface of the rotor cover and extending upward from the outer edge of the upper surface of the rotor cover is formed on the rotor body . a rotor body configured to hold one or more samples and a rotor cover covering an opening portion of the rotor body ; and characterised by : an inclined surface extending toward a radial outer side of an outer edge of an upper surface of the rotor cover and extending upward from the outer edge of the upper surface of the rotor cover is formed on the rotor body .
A machine learning apparatus configured to perform machine learning with respect to at least either operating capacity of an outside air conditioning device or operating capacity of an air conditioning device in an air-conditioning system that performs air conditioning of a target space (SP), the machine learning apparatus comprising: a state variable acquiring unit configured to acquire state variables including a condition of the outside air (OA), a condition of the inside air, an operation condition of the outside air conditioning device , an operation condition of the air conditioning device , and a temperature or humidity set for the target space (SP); a learning unit configured to perform the machine learning by associating the state variables with at least either the operating capacity of the outside air conditioning device or the operating capacity of the air conditioning device ; and a reward calculating unit configured to calculate a reward that correlates with a total of energy consumption of the outside air conditioning device and energy consumption of the air conditioning device , wherein the learning unit performs the machine learning by using the reward. a state variable acquiring unit configured to acquire state variables including a condition of the outside air (OA), a condition of the inside air, an operation condition of the outside air conditioning device , an operation condition of the air conditioning device , and a temperature or humidity set for the target space (SP); a learning unit configured to perform the machine learning by associating the state variables with at least either the operating capacity of the outside air conditioning device or the operating capacity of the air conditioning device ; and a reward calculating unit configured to calculate a reward that correlates with a total of energy consumption of the outside air conditioning device and energy consumption of the air conditioning device , wherein the learning unit performs the machine learning by using the reward.
Method for manufacturing an optical lens comprising the following successive steps: - a step of providing an optical lens attached to a blocking piece , - a step of laminating a functional film on a surface of said optical lens, - a step of obtaining an assembly constituted by the blocking piece , the optical lens and the functional laminated film , - a step of cutting the excess film directly on said assembly , so as to reduce the film shape , - a step of deblocking the optical lens with the film , and the blocking piece . - a step of providing an optical lens attached to a blocking piece , - a step of laminating a functional film on a surface of said optical lens, - a step of obtaining an assembly constituted by the blocking piece , the optical lens and the functional laminated film , - a step of cutting the excess film directly on said assembly , so as to reduce the film shape , - a step of deblocking the optical lens with the film , and the blocking piece .
A compound represented by the following formula (I) wherein, R 1 represents a chlorine atom or bromine atom, R 2 represents a cyano group or nitro group, R 3 and R 4 may be mutually the same or different and represent C 1 -C 6 alkyl groups, C 3 -C 6 cycloalkyl groups, C 3 -C 6 alkenyl groups, C 3 -C 6 alkynyl groups, C 1 -C 6 alkoxy groups, halogen atoms, hydrogen atoms or Cy, each group other than Cy may be substituted depending on the case, substituents in the case where each of these groups is substituted are selected from one or more halogen atoms, and R 3 and R 4 may form a four- to seven-membered cyclic hydrocarbon together with carbon atoms bound thereto, Cy represents a phenyl group or five- to six-membered heterocyclic group, these groups may be substituted depending on the case, substituents in the case where a phenyl group is substituted are selected from the group consisting of one or more halogen atoms, hydroxyl groups, nitro groups, cyano groups, C 1 -C 4 alkyl groups which may be substituted with one or more halogen atoms, and C 1 -C 4 alkoxy groups which may be substituted with one or more halogen atoms, substituents in the case where a heterocyclic group is substituted are selected from the group consisting of one or more halogen atoms, hydroxyl groups, nitro groups, cyano groups, C 1 -C 4 alkyl groups which may be substituted with one or more halogen atoms, and C 1 -C 4 alkoxy groups which may be substituted with one or more halogen atoms, and a represents 3 to 5. R 1 represents a chlorine atom or bromine atom, R 2 represents a cyano group or nitro group, R 3 and R 4 may be mutually the same or different and represent C 1 -C 6 alkyl groups, C 3 -C 6 cycloalkyl groups, C 3 -C 6 alkenyl groups, C 3 -C 6 alkynyl groups, C 1 -C 6 alkoxy groups, halogen atoms, hydrogen atoms or Cy, each group other than Cy may be substituted depending on the case, substituents in the case where each of these groups is substituted are selected from one or more halogen atoms, and R 3 and R 4 may form a four- to seven-membered cyclic hydrocarbon together with carbon atoms bound thereto, Cy represents a phenyl group or five- to six-membered heterocyclic group, these groups may be substituted depending on the case, substituents in the case where a phenyl group is substituted are selected from the group consisting of one or more halogen atoms, hydroxyl groups, nitro groups, cyano groups, C 1 -C 4 alkyl groups which may be substituted with one or more halogen atoms, and C 1 -C 4 alkoxy groups which may be substituted with one or more halogen atoms, substituents in the case where a heterocyclic group is substituted are selected from the group consisting of one or more halogen atoms, hydroxyl groups, nitro groups, cyano groups, C 1 -C 4 alkyl groups which may be substituted with one or more halogen atoms, and C 1 -C 4 alkoxy groups which may be substituted with one or more halogen atoms, and a represents 3 to 5.
Method of operating a user equipment in a radio access network, the user equipment , UE, being configured with a UE-specific configuration for transmitting signaling on a physical channel, the UE further having a cell-specific configuration for transmitting signaling on the physical channel, wherein the method comprises transmitting signaling, representing a msg3 of a random access procedure, on the physical channel based on the cell-specific configuration ignoring the UE-specific configuration, characterized by that ignoring the UE-specific configuration is based on a parameter indicating a transform precoder to be used for transmitting the signaling.
An artificial hydrogel composition for use in the cultivation and expansion of pancreatic cells isolated from adult pancreatic tissue into pancreatic organoids in vitro, comprising: - a hydrogel with a shear modulus (G') of less than 500 Pa determined by standard rheometry at room temperature at a frequency of 1 Hz and at an angular deflection of 1% at completion of gel formation, - low-molecular peptides comprising a linker function and at least one peptide sequence selected from: YIGSR (SEQ ID NO: 2), GFOGER (SEQ ID NO: 3), IKVAV (SEQ ID NO: 4), wherein the peptides are linked or linkable to said hydrogel, and wherein the hydrogel composition is free of natural extracellular matrix (ECM) proteins derived from animal or human tissue. - a hydrogel with a shear modulus (G') of less than 500 Pa determined by standard rheometry at room temperature at a frequency of 1 Hz and at an angular deflection of 1% at completion of gel formation, - low-molecular peptides comprising a linker function and at least one peptide sequence selected from: YIGSR (SEQ ID NO: 2), GFOGER (SEQ ID NO: 3), IKVAV (SEQ ID NO: 4), wherein the peptides are linked or linkable to said hydrogel, and wherein the hydrogel composition is free of natural extracellular matrix (ECM) proteins derived from animal or human tissue. YIGSR (SEQ ID NO: 2), GFOGER (SEQ ID NO: 3), IKVAV (SEQ ID NO: 4), wherein the peptides are linked or linkable to said hydrogel, and wherein the hydrogel composition is free of natural extracellular matrix (ECM) proteins derived from animal or human tissue.
A method of identifying a trophoblast in a maternal blood sample, the method comprising: (a) subjecting the maternal blood sample to a density gradient which separates nucleated cells from the plasma or the un-nucleated red blood cells, (b) permeablizing said nucleated cells of the maternal blood sample; (c) detecting in cells of the maternal blood sample expression of a trophoblast marker cytokeratin-7 with an antibody specific to said cytokeratin-7 expressed in said trophoblast cell, with the proviso that said maternal blood sample does not comprise a placental tissue; and (d) classifying cells exhibiting expression of said trophoblast marker as trophoblasts; thereby identifying the trophoblast in the maternal blood sample. (a) subjecting the maternal blood sample to a density gradient which separates nucleated cells from the plasma or the un-nucleated red blood cells, (b) permeablizing said nucleated cells of the maternal blood sample; (c) detecting in cells of the maternal blood sample expression of a trophoblast marker cytokeratin-7 with an antibody specific to said cytokeratin-7 expressed in said trophoblast cell, with the proviso that said maternal blood sample does not comprise a placental tissue; and (d) classifying cells exhibiting expression of said trophoblast marker as trophoblasts; thereby identifying the trophoblast in the maternal blood sample.
Use of a machine for the automated production of a self-assembled bionanocatalyst (BNC) composition, wherein the machine comprises: a. an enzyme container; b. a magnetic nanoparticle (MNP) container; c. an enzyme pump; d. an MNP pump; e. an MNP disruptor; and f. a BNC mixer; wherein said enzyme container is operable to hold an enzyme preparation; wherein said enzyme preparation catalyzes the conversion of a diffusible substrate to a diffusible product; wherein said MNP container is operable to hold an MNP preparation; wherein said MNP pump is operable to send said MNP preparation to said MNP disruptor; wherein said MNP pump is operable to send a plurality of disrupted MNPs from said MNP disruptor to said BNC mixer; wherein said enzyme pump is operable to send an enzyme preparation to said BNC mixer; wherein said mixer is operable to mix said disrupted MNPs and enzyme preparation to form said BNCs; wherein said MNP preparation is combined with said enzyme preparation using said machine, wherein said enzyme preparation comprises an enzyme selected from the group consisting of hydratases, transaminases, ene reductases (EREDS), imine reductases (IREDS), oxynitrilases, synthetases, and isomerases; and wherein at least a portion of said enzymes are stably immobilized within mesopores resulting from self-assembly of magnetic nanoparticles. a. an enzyme container; b. a magnetic nanoparticle (MNP) container; c. an enzyme pump; d. an MNP pump; e. an MNP disruptor; and f. a BNC mixer;
A power phase module for a modular converter, the power phase module having: - at least one first DC terminal pair with respective connection elements on an end face of the power phase module for connection to a busbar pair, - a first DC capacitor terminal pair that is spaced apart from the first DC terminal pair and is connected in parallel therewith, the first DC capacitor terminal pair having respective connection elements on the end face for connection to an intermediate circuit capacitor module associated with the power phase module , - a first AC terminal , - a switching device connected to the first AC terminal and the first DC terminal pair for inverting a direct voltage, which is present across the first DC terminal pair in an operating state, into an alternating voltage produced at the first AC terminal , or vice versa, - a cooling device to dissipate heat from the power phase module , in particular from the switching device , characterised in that the first AC terminal is arranged on a side of the power phase module other than the end face , and in that the first DC terminal pair and the first DC capacitor terminal pair are formed from sheet metal areas bent away from cross bridges and said sheet metal areas are arranged substantially in one plane, the respective connection elements of the first DC terminal pair and of the first DC capacitor terminal pair being formed on or in the bent sheet metal areas. - at least one first DC terminal pair with respective connection elements on an end face of the power phase module for connection to a busbar pair, - a first DC capacitor terminal pair that is spaced apart from the first DC terminal pair and is connected in parallel therewith, the first DC capacitor terminal pair having respective connection elements on the end face for connection to an intermediate circuit capacitor module associated with the power phase module , - a first AC terminal , - a switching device connected to the first AC terminal and the first DC terminal pair for inverting a direct voltage, which is present across the first DC terminal pair in an operating state, into an alternating voltage produced at the first AC terminal , or vice versa, - a cooling device to dissipate heat from the power phase module , in particular from the switching device ,
A method for receiving an Enhanced Physical Downlink Control Channel, EPDCCH, by a user equipment, UE, in a wireless communication system, the method comprising: receiving the EPDCCH by monitoring EPDCCH candidates including one or more Enhanced Control Channel Elements, ECCEs, in Physical Resource Block, PRB, pairs, wherein each of the one or more ECCEs includes Enhanced Resource Element Groups, EREGs, included in at least two PRB pairs among the PRB pairs, the method being characterized in that : each index of the EREGs in the ECCE is determined based on a first value and a number of the one or more ECCEs in each of the PRB pairs, and the first value is an integer rounding down a value obtained by dividing an index of the ECCE by a number of the PRB pairs. receiving the EPDCCH by monitoring EPDCCH candidates including one or more Enhanced Control Channel Elements, ECCEs, in Physical Resource Block, PRB, pairs, wherein each of the one or more ECCEs includes Enhanced Resource Element Groups, EREGs, included in at least two PRB pairs among the PRB pairs, the method being characterized in that : each index of the EREGs in the ECCE is determined based on a first value and a number of the one or more ECCEs in each of the PRB pairs, and the first value is an integer rounding down a value obtained by dividing an index of the ECCE by a number of the PRB pairs. each index of the EREGs in the ECCE is determined based on a first value and a number of the one or more ECCEs in each of the PRB pairs, and the first value is an integer rounding down a value obtained by dividing an index of the ECCE by a number of the PRB pairs.
Arrangement of an engine compartment of a motor vehicle having a support frame , at least one heat exchanger and a cooling circuit , the arrangement also having an interconnection device connecting at least one heat exchanger to the cooling circuit that is disposed partially through a passage delimited by the heat exchanger and the support frame, characterized in that the support frame is at least partially disposed around the heat exchanger and the interconnection device is fastened to a water box of a heat exchanger, in particular by screwing an interfacing plate that is mounted secured to the rigid pipe .
A mass spectrometer comprising: an ion mobility separator for separating ions according to their ion mobility; one or more first devices or stages arranged upstream of said ion mobility separator, wherein said ion mobility separator is coupled to said one or more first devices or stages such that said ion mobility separator is provided or filled with gas from said one or more first devices or stages, wherein said one or more first devices or stages comprise an ion source , and wherein the pressure within said ion mobility separator is less than the pressure within or at said one or more first devices or stages ; one or more second devices or stages arranged downstream of said ion mobility separator , wherein said one or more second devices or stages Z comprises a mass analyser, and wherein the pressure within said ion mobility separator is greater than the pressure within or at said one or more second devices or stages ; and a control system arranged and adapted: (i) to monitor directly or indirectly the operating environment within said ion mobility separator ; and (ii) to control said operating environment within said ion mobility separator based on said monitoring by controlling one or more gas flows to or within one or more of said one or more first devices or stages . an ion mobility separator for separating ions according to their ion mobility; one or more first devices or stages arranged upstream of said ion mobility separator, wherein said ion mobility separator is coupled to said one or more first devices or stages such that said ion mobility separator is provided or filled with gas from said one or more first devices or stages, wherein said one or more first devices or stages comprise an ion source , and wherein the pressure within said ion mobility separator is less than the pressure within or at said one or more first devices or stages ; one or more second devices or stages arranged downstream of said ion mobility separator , wherein said one or more second devices or stages Z comprises a mass analyser, and wherein the pressure within said ion mobility separator is greater than the pressure within or at said one or more second devices or stages ; and a control system arranged and adapted: (i) to monitor directly or indirectly the operating environment within said ion mobility separator ; and (ii) to control said operating environment within said ion mobility separator based on said monitoring by controlling one or more gas flows to or within one or more of said one or more first devices or stages . (i) to monitor directly or indirectly the operating environment within said ion mobility separator ; and (ii) to control said operating environment within said ion mobility separator based on said monitoring by controlling one or more gas flows to or within one or more of said one or more first devices or stages .
An apparatus for communication comprising: a memory device ; and a processing circuit coupled to the memory device and configured to: identify, for each of a plurality of other wireless communication apparatuses, a performance requirement; determine, based on a corresponding performance requirement for each of the other wireless communication apparatuses, different structures within a unified frame structure for communication with the other wireless communication apparatuses, wherein the different structures comprise different control structures including a time division multiplexing control channel structure and a frequency division multiplexing control channel structure; and communicate an indication of the unified frame structure via a communication interface to the plurality of other wireless communication apparatuses. a memory device ; and a processing circuit coupled to the memory device and configured to: identify, for each of a plurality of other wireless communication apparatuses, a performance requirement; determine, based on a corresponding performance requirement for each of the other wireless communication apparatuses, different structures within a unified frame structure for communication with the other wireless communication apparatuses, wherein the different structures comprise different control structures including a time division multiplexing control channel structure and a frequency division multiplexing control channel structure; and communicate an indication of the unified frame structure via a communication interface to the plurality of other wireless communication apparatuses. identify, for each of a plurality of other wireless communication apparatuses, a performance requirement; determine, based on a corresponding performance requirement for each of the other wireless communication apparatuses, different structures within a unified frame structure for communication with the other wireless communication apparatuses, wherein the different structures comprise different control structures including a time division multiplexing control channel structure and a frequency division multiplexing control channel structure; and communicate an indication of the unified frame structure via a communication interface to the plurality of other wireless communication apparatuses.
Double-walled cookware with an inner hull and an outer hull , which are arranged with a distance in each other and have a flat bottom area and a wall area, and with a bottom plate arranged in the bottom area between the two hulls wherein the two hulls are vacuum-tightly connected to each other and there is a vacuum between them, characterized in that the bottom plate is in contact with the bottom areas of the inner hull and the outer hull without a material-locking connection.