mhurhangee/patent-ind-claim-en huggingface dataset:
Method for air-conditioning rooms via an air-conditioning ceiling which is formed from thermally activated concrete elements, wherein parallel to the air-conditioning ceiling is arranged a buffer store which is designed as a latent heat store , characterised in that the latent heat store is designed as a block-like or cylinder-like housing containing a number of heat-exchanger modules in its interior, wherein each heat-exchanger module consists of inflow-side and outflow-side distribution boxes opposite one another and connected to one another via a plurality of connecting tubes connected to convector plates to conduct heat and in that a heat-carrier medium flows through via the distribution boxes arranged on the inflow-side and outflow-side, in that the PCM material of the latent heat store arranged in the space between the convector plates and the connecting tubes cools or heats.
A dynamic focus and zoom system for use with wide-field, confocal and multiphoton microscopes comprising: (a') a housing ; (a) a first MEMS mirror , a second MEMS mirror , and a third MEMS mirror situated within the housing , wherein the first MEMS mirror, the second MEMS mirror and the third MEMS mirror are electronically controlled variable focus mirrors and are configured to provide independent adjustment of focus and zoom; (b) a first prism and a second prism that is situated adjacent to the first prism ; (c) an optical relay comprised of a first fixed lens and a second fixed lens , the optical relay being situated directly behind the second prism ; (d) a first beam splitter that is situated directly behind the second fixed lens ; and (e) a second beam splitter that is situated in front of the second MEMS mirror ; wherein the second prism , the first fixed lens , the second fixed lens , and the first beam splitter are aligned linearly along a longitudinal axis of the optical relay; and wherein the first MEMS mirror and the second MEMS mirror are linearly aligned with one another at a ninety-degree angle to the longitudinal axis of the optical relay. (a') a housing ; (a) a first MEMS mirror , a second MEMS mirror , and a third MEMS mirror situated within the housing , wherein the first MEMS mirror, the second MEMS mirror and the third MEMS mirror are electronically controlled variable focus mirrors and are configured to provide independent adjustment of focus and zoom; (b) a first prism and a second prism that is situated adjacent to the first prism ; (c) an optical relay comprised of a first fixed lens and a second fixed lens , the optical relay being situated directly behind the second prism ; (d) a first beam splitter that is situated directly behind the second fixed lens ; and (e) a second beam splitter that is situated in front of the second MEMS mirror ; wherein the second prism , the first fixed lens , the second fixed lens , and the first beam splitter are aligned linearly along a longitudinal axis of the optical relay; and wherein the first MEMS mirror and the second MEMS mirror are linearly aligned with one another at a ninety-degree angle to the longitudinal axis of the optical relay.
An ironing apparatus comprising a heatable iron soleplate and a steam generating system coupleable thereto having a heatable steam boiler for generating steam which can be guided and discharged via a steam pressure valve by means of steam lines to steam outlet holes in the heatable iron soleplate of the ironing apparatus , and a controller connected to the steam generating system via a coupling , characterized in that the controller is adapted to automatically discharge the steam at predetermined intermittent steam discharging intervals of one cycle, wherein a duty cycle of the predetermined intermittent steam discharging interval corresponds to a duty cycle of an interval ranging from more than 10 % to less than 90 %, preferably to a duty cycle of an interval ranging from more than 40 % to less than 80 %, wherein the value of the frequency of an interval corresponds to more than 0.5 steam discharging intervals per second and less than 5 steam discharging intervals per second.
A photoacoustic apparatus comprising: a correction processing unit configured to correct a signal strength of the electrical signal output by a receiving unit that receives acoustic waves generated from a contrast agent when an irradiation unit radiates light from a light source to an object containing the contrast agent , based on a temporal change in a concentration of the contrast agent contained in the object ; and an acquiring unit configured to acquire characteristics information on the object , based on the electrical signal that has been corrected by the correction processing unit , wherein the correction processing unit further comprises a device configured to store the temporal change in the concentration of the contrast agent contained in the object at respective time points in advance, wherein a relative value of the contrast agent calculated based on the temporal change in the concentration of the contrast agent is stored in the device, and the signal strength of the electrical signal is corrected by using the relative value. a correction processing unit configured to correct a signal strength of the electrical signal output by a receiving unit that receives acoustic waves generated from a contrast agent when an irradiation unit radiates light from a light source to an object containing the contrast agent , based on a temporal change in a concentration of the contrast agent contained in the object ; and an acquiring unit configured to acquire characteristics information on the object , based on the electrical signal that has been corrected by the correction processing unit , wherein the correction processing unit further comprises a device configured to store the temporal change in the concentration of the contrast agent contained in the object at respective time points in advance, wherein a relative value of the contrast agent calculated based on the temporal change in the concentration of the contrast agent is stored in the device, and the signal strength of the electrical signal is corrected by using the relative value.
A thermally conductive composition for promoting heat dissipation from a heat source, the thermally conductive composition comprising: a base material ; and a high magnetic permeability filler having a magnetic permeability higher than that of the base material , wherein the base material contains the high magnetic permeability filler , and the thermally conductive composition has a relative magnetic permeability higher than 1, characterized in that the thermally conductive composition further comprises an air region inside the base material , the air region is not perforating the base material , and the air region is placed inside the base material to lower a relative dielectric constant of the entire thermally conductive composition to 7 or lower. a base material ; and a high magnetic permeability filler having a magnetic permeability higher than that of the base material , wherein the base material contains the high magnetic permeability filler , and the thermally conductive composition has a relative magnetic permeability higher than 1, characterized in that the thermally conductive composition further comprises an air region inside the base material , the air region is not perforating the base material , and the air region is placed inside the base material to lower a relative dielectric constant of the entire thermally conductive composition to 7 or lower.
A method, comprising: receiving input audio samples; generating soft-clipping information indicating whether the input audio samples include soft-clipping distortion, wherein generating the soft-clipping information includes: fitting a mixture model to the input audio samples, wherein fitting the mixture model to the input audio samples includes generating a fitted mixture model having fitted parameters, the fitted parameters of the fitted mixture model identifying at least a portion of the soft-clipping information; and outputting the soft-clipping information; wherein the fitted mixture model includes: a Laplacian distribution having a zero mean or a generalized Gaussian distribution; a first Gaussian distribution; and a second Gaussian distribution; wherein the first Gaussian distribution and the second Gaussian distribution are symmetrical in which the respective means of the Gaussian distributions are opposite. receiving input audio samples; generating soft-clipping information indicating whether the input audio samples include soft-clipping distortion, wherein generating the soft-clipping information includes: fitting a mixture model to the input audio samples, wherein fitting the mixture model to the input audio samples includes generating a fitted mixture model having fitted parameters, the fitted parameters of the fitted mixture model identifying at least a portion of the soft-clipping information; and outputting the soft-clipping information; wherein the fitted mixture model includes: a Laplacian distribution having a zero mean or a generalized Gaussian distribution; a first Gaussian distribution; and a second Gaussian distribution; wherein the first Gaussian distribution and the second Gaussian distribution are symmetrical in which the respective means of the Gaussian distributions are opposite. a Laplacian distribution having a zero mean or a generalized Gaussian distribution; a first Gaussian distribution; and a second Gaussian distribution; wherein the first Gaussian distribution and the second Gaussian distribution are symmetrical in which the respective means of the Gaussian distributions are opposite.
A cell culture system comprising: (i) one or more fluid reservoirs; (ii) a pump operably coupled to the one or more fluid reservoirs; and (iii) a cell culture chamber fluidically coupled to the one or more fluid reservoirs, wherein the cell culture chamber comprises a fluidic channel having an inlet, an outlet, and a cell binding surface; and (iv) a mounting area comprising a base, the mounting area supporting the cell culture chamber such that the fluidic channel is angled with respect to the base in a manner that the inlet is below the outlet. (i) one or more fluid reservoirs; (ii) a pump operably coupled to the one or more fluid reservoirs; and (iii) a cell culture chamber fluidically coupled to the one or more fluid reservoirs, wherein the cell culture chamber comprises a fluidic channel having an inlet, an outlet, and a cell binding surface; and (iv) a mounting area comprising a base, the mounting area supporting the cell culture chamber such that the fluidic channel is angled with respect to the base in a manner that the inlet is below the outlet.
A method for producing granules to be used for the production of silicate glass, which has a step of mixing a glass raw material composition composed essentially of an alkali metal source, an alkaline earth metal source and a powdery silicon source, with water, followed by compression molding, and which is characterized in that the glass raw material composition contains at least 50 mass% of the silicon source and at least 10 mass% in total of the alkali metal source and the alkaline earth metal source, as calculated as oxides, based on 100 mass% of the silicate glass obtainable from the granules, the alkali metal source contains an alkali metal carbonate, D90 representing the particle size at a cumulative volume of 90% in the particle size accumulation curve of the alkaline earth metal source is at most 100μm, the compression molded granules have a volume of from 1 to 50cm 3 , the silicon source is at least one selected from silica sand, quartz, cristobalite, amorphous silica and feldspar, and the amount of water to be mixed is from 3 to 8 mass%.
Device for controlling the angular velocity of an out-of-service spacecraft making it possible to facilitate the operations of active removal of the spacecraft as space debris, comprising a stator and a rotor able to move on a rotation axis (A21) with respect to the stator, the stator being intended to be driven by the spacecraft to be stabilized, the rotor being intended to orient itself along the terrestrial magnetic field , where the stator comprises an electrically conductive non-ferromagnetic body while the rotor comprises a magnetized system configured to induce, in the stator , eddy currents for braking a relative movement of the rotor with respect to the stator .
Method for consolidating first (K1) and second (K2) versions of a large scale dynamic Knowledge Organization System; KOS, wherein said KOS organizes data describing concepts and their relative attributes in a hierarchical data structure, and wherein first (T1) and second (T2) dates are associated with said first (K1) and second (K2) versions respectively, wherein the method comprises: a) using data processing means , identifying at least one amended concept (C01'), in the second version of the KOS, as compared to the first version of said KOS; b) using data processing means, identifying an evolutionary relationship (E) between said amended concept (C01') in the second version of the KOS (K2) with respect to the first version of the KOS (K1); c) using data processing means, recording the amended concept (C01') from the second version of the KOS into the first version, recording data indicating said evolutionary relationship (E) into the first version of the KOS, thereby generating a consolidated hierarchical data structure (EKG) comprising the concepts (C01, C01') of said KOS at both first (T1) and second dates (T2), and storing said consolidated hierarchical data structure in a memory element , and wherein the method further comprises computing a value indicating the similarity between any pair of concepts in the consolidated hierarchical data structure (EKG), said pair (C01, C01') being linked by an evolutionary (E) and/or hierarchical relationship, wherein said value is computed by said data processing means based on the semantic and/or lexical similarity of said concepts' title or attributes, and associating the resulting similarity value with said evolutionary and/or hierarchical relationship. a) using data processing means , identifying at least one amended concept (C01'), in the second version of the KOS, as compared to the first version of said KOS; b) using data processing means, identifying an evolutionary relationship (E) between said amended concept (C01') in the second version of the KOS (K2) with respect to the first version of the KOS (K1); c) using data processing means, recording the amended concept (C01') from the second version of the KOS into the first version, recording data indicating said evolutionary relationship (E) into the first version of the KOS, thereby generating a consolidated hierarchical data structure (EKG) comprising the concepts (C01, C01') of said KOS at both first (T1) and second dates (T2), and storing said consolidated hierarchical data structure in a memory element ,
A method for spectrum sharing between networks, used to implement spectrum allocation between a first network (A) and a second network (B), comprising the following steps: measuring the strength of signal of the second network (B); calculating a network overlapping level indicator (V) according to the strength of the signal of the second network (B), and obtaining network-coverage-topology-based information of the second network (B) according to the network overlapping level indicator (V), the network overlapping level indicator indicating a level at which the first network (A) overlaps with the second network (B); the first network (A) exchanging the network-coverage-topology-based information of the second network (B) with the second network (B), and obtaining network-coverage-topology-based information of the first network (A) from the second network (B); said method being characterised in that it further comprises the step of calculating the spectrum shared between the first network (A) and the second network (B) based on number of small cells of the first network (A) that belong to the different network overlapping level indicators, wherein the network-coverage-topology-based information of the first network (A) comprises said number of small cells in the first network (A) that belong to different network overlapping level indicators, according to a network overlapping level indicator of the first network (A), measuring the strength of signal of the second network (B); calculating a network overlapping level indicator (V) according to the strength of the signal of the second network (B), and obtaining network-coverage-topology-based information of the second network (B) according to the network overlapping level indicator (V), the network overlapping level indicator indicating a level at which the first network (A) overlaps with the second network (B); the first network (A) exchanging the network-coverage-topology-based information of the second network (B) with the second network (B), and obtaining network-coverage-topology-based information of the first network (A) from the second network (B); said method being characterised in that it further comprises the step of calculating the spectrum shared between the first network (A) and the second network (B) based on number of small cells of the first network (A) that belong to the different network overlapping level indicators, wherein the network-coverage-topology-based information of the first network (A) comprises said number of small cells in the first network (A) that belong to different network overlapping level indicators, according to a network overlapping level indicator of the first network (A),
A wastewater treatment process comprising at least one biological oxidation step in a biological treatment unit , the biological treatment unit comprising a biological reactor , a separator of the settling or flotation type, downstream of the biological reactor , and a circuit for recirculating a fraction of the sludge resulting from the settling or flotation step to the biological reactor , the process being characterised in that : - ozone and an adsorbent compound are introduced into the recirculation circuit or into the separator , or into both, - and ozone and/or an adsorbent compound (PAC) is additionally introduced upstream of the biological treatment unit , and/or into the reactor , and/or downstream of the biological treatment unit , wherein downstream of the biological treatment unit , when ozone is introduced, no adsorbent compound is introduced, and when the adsorbent compound is introduced, no ozone is introduced - ozone and an adsorbent compound are introduced into the recirculation circuit or into the separator , or into both, - and ozone and/or an adsorbent compound (PAC) is additionally introduced upstream of the biological treatment unit , and/or into the reactor , and/or downstream of the biological treatment unit , wherein downstream of the biological treatment unit , when ozone is introduced, no adsorbent compound is introduced, and when the adsorbent compound is introduced, no ozone is introduced
A data transmission method, carried out by a terminal device, the method comprising: receiving (S201) first configuration information, sent by a network device, wherein the first configuration indicates configuration information of pre-configured resource of the terminal device; and in response to the pre-configured resource being activated by the network device, transmitting uplink data or receiving downlink data via the pre-configured resource (S202) wherein, the first configuration information is carried in a suspend configuration, wherein the suspend configuration is carried in a radio resource control, RRC, release message; and wherein the suspend configuration indicates an RRC inactive configuration parameter. receiving (S201) first configuration information, sent by a network device, wherein the first configuration indicates configuration information of pre-configured resource of the terminal device; and in response to the pre-configured resource being activated by the network device, transmitting uplink data or receiving downlink data via the pre-configured resource (S202) wherein, the first configuration information is carried in a suspend configuration, wherein the suspend configuration is carried in a radio resource control, RRC, release message; and wherein the suspend configuration indicates an RRC inactive configuration parameter.
A method of manufacturing a medical balloon , comprising: forming the medical balloon with an elongated scoring element projecting from an outer surface of the balloon and extending in a longitudinal direction along at least a barrel section by expanding a tubular parison in a mold cavity including a groove corresponding in shape to the scoring element , the tubular parison having a constant outer diameter and lacking any surface projections.
A film from which a package can be produced, in particular for food , optical glasses , individual parts for bioreactors, solar panels, medical devices and pharmaceutical products, consisting of at least two plastic layers , which are joined together in a coextrusion tool to form the film , - wherein an additive is present in one of the layers (5 or 6) in a metered quantity and in that the material pairing between the first and second layer has a separation plane with a low adhesion force, such that the respective first layer (13 1 ; 14 1 ) of the two layers facing the separation plane is formed from a polymer pairing or from incompatible polymers which have no or low adhesion forces, preferably from the material pairings polyolefin/PA, polyolefin/EVOH or polyolefin/PET, - and in that the first and second layers can be separated from one another in the separation plane in a non-destructive manner in such a way that the film can be divided into two film webs characterized in that the second layer consists of several different layers (14 1 , 14 2 , ...14 n ) and in that the first layer (14 1 ) facing the separation plane has a thinner wall thickness than the subsequent layers (14 2 , ...14 n ). consisting of at least two plastic layers , which are joined together in a coextrusion tool to form the film , - wherein an additive is present in one of the layers (5 or 6) in a metered quantity and in that the material pairing between the first and second layer has a separation plane with a low adhesion force, such that the respective first layer (13 1 ; 14 1 ) of the two layers facing the separation plane is formed from a polymer pairing or from incompatible polymers which have no or low adhesion forces, preferably from the material pairings polyolefin/PA, polyolefin/EVOH or polyolefin/PET, - and in that the first and second layers can be separated from one another in the separation plane in a non-destructive manner in such a way that the film can be divided into two film webs - wherein an additive is present in one of the layers (5 or 6) in a metered quantity and in that the material pairing between the first and second layer has a separation plane with a low adhesion force, such that the respective first layer (13 1 ; 14 1 ) of the two layers facing the separation plane is formed from a polymer pairing or from incompatible polymers which have no or low adhesion forces, preferably from the material pairings polyolefin/PA, polyolefin/EVOH or polyolefin/PET, - and in that the first and second layers can be separated from one another in the separation plane in a non-destructive manner in such a way that the film can be divided into two film webs characterized in that the second layer consists of several different layers (14 1 , 14 2 , ...14 n ) and in that the first layer (14 1 ) facing the separation plane has a thinner wall thickness than the subsequent layers (14 2 , ...14 n ).