mhurhangee/patent-ind-claim-en huggingface dataset:
Method for determining the switching times of a night-time reduction/night-time shut-off and/or the heating characteristic curve of a heating system, characterized in that a. for a plurality of times of each of a plurality of measurement days, pairs of values of the flow temperature of at least one heating circuit of the heating system, which is present at the time, and of the outside temperature at the location of the property of the heating system are formed, and b. the temporal interval of one day of 24 hours is subdivided into a plurality of successive time boxes and each pair of values is assigned to that time box in which the time of the pair of values is located, and c. a mathematical model is formed for each of the time boxes for the assigned pairs of measured values therein, which mathematical model describes the dependence of the flow temperature on the outside temperature in this time box. a. for a plurality of times of each of a plurality of measurement days, pairs of values of the flow temperature of at least one heating circuit of the heating system, which is present at the time, and of the outside temperature at the location of the property of the heating system are formed, and b. the temporal interval of one day of 24 hours is subdivided into a plurality of successive time boxes and each pair of values is assigned to that time box in which the time of the pair of values is located, and c. a mathematical model is formed for each of the time boxes for the assigned pairs of measured values therein, which mathematical model describes the dependence of the flow temperature on the outside temperature in this time box.
A method for a network entity, a trustworthy party, wherein the method comprises: receiving, via a communication network, at the network entity that is the trustworthy party, a request, from a requesting party, for verifying correctness of a data processing result, wherein the data processing result has been computed by a cloud service provider, without receiving the data used to get the data processing result from the requesting party, obtaining , via the communication network, at the trustworthy party, a data processing result from the requesting party or the cloud service provider, in response to receiving the request for verifying correctness of the data processing result from the requesting party, obtaining , via the communication network, at the trustworthy party, the data used to get the data processing result and a corresponding algorithm from the cloud service provider, processing , at the trustworthy party, the obtained data with the corresponding algorithm and comparing the processed result with the received data processing result, and if the two results are the same, the data processing result verified by the trustworthy party is correct, the method further comprising, verifying the facticity of the data obtained from the cloud service provider based on at least one of historical information and statistical information, wherein the historical information comprises historical data mining and/or data pattern learning. receiving, via a communication network, at the network entity that is the trustworthy party, a request, from a requesting party, for verifying correctness of a data processing result, wherein the data processing result has been computed by a cloud service provider, without receiving the data used to get the data processing result from the requesting party, obtaining , via the communication network, at the trustworthy party, a data processing result from the requesting party or the cloud service provider, in response to receiving the request for verifying correctness of the data processing result from the requesting party, obtaining , via the communication network, at the trustworthy party, the data used to get the data processing result and a corresponding algorithm from the cloud service provider, processing , at the trustworthy party, the obtained data with the corresponding algorithm and comparing the processed result with the received data processing result, and if the two results are the same, the data processing result verified by the trustworthy party is correct, the method further comprising, verifying the facticity of the data obtained from the cloud service provider based on at least one of historical information and statistical information, wherein the historical information comprises historical data mining and/or data pattern learning.
A method of determining whether an individual has received an immunogenic composition comprising a recombinant protein produced by a baculovirus expression system in cultured Spodoptera Frugiperda (Sf) cells or cultured cells from a cell line derived from Spodoptera Frugiperda, wherein said method comprises determining in a biological sample obtained from said individual the presence or absence of antibodies specific for one or more antigens from an RNA virus capable of infecting Spodoptera Frugiperda (Sf) cells or cells from a cell line derived from Spodoptera Frugiperda, wherein said RNA virus is a virus which belongs to the family Rhabdoviridiae , and wherein the presence of said antibodies in said biological sample indicates that said individual has received said immunogenic composition.
A composition containing trifluoroethylene, and at least one first compound selected from the group consisting of E-1,2-difluoroethylene, Z-1,2-difluoroethylene, 1,1-difluoroethylene, chlorotrifluoroethylene, 1-chloro-2,2-difluoroethylene, E-1-chloro-1,2-difluoroethylene, Z-1-chloro-1,2-difluoroethylene, 1,1,2-trifluoroethane and methane, wherein the proportion of each first compound contained in the composition is less than 0.5 mass% based on the total amount of trifluoroethylene and the first compound(s), the composition contains chlorotrifluoroethylene as a first compound, and the lower limit of the total proportion of the at least one first compound is 0.0001 mass%.
Agglomerated dispersible granules, comprising: activated alumina particles having: a porous structure; and a plurality of electrically-charged binding sites disposed within the porous structure; and phosphate particles, wherein the activated alumina particles and the phosphate particles are present in the agglomerated dispersible granules as distinct phases agglomerated together, wherein the agglomerated dispersible granules have a size, as measured by median diameter, of 0.4 mm to 4.0 mm. activated alumina particles having: a porous structure; and a plurality of electrically-charged binding sites disposed within the porous structure; and a porous structure; and a plurality of electrically-charged binding sites disposed within the porous structure; and phosphate particles, wherein the activated alumina particles and the phosphate particles are present in the agglomerated dispersible granules as distinct phases agglomerated together, wherein the agglomerated dispersible granules have a size, as measured by median diameter, of 0.4 mm to 4.0 mm.
Method for the permanent removal of mould on a surface , wherein in a set-up step a treatment device made of a gel-like anti-mould agent and a spore-tight cover part is arranged on the surface to be treated, characterised in that in the set-up step the anti-mould agent is applied to the surface to be treated in a grid and is then covered with the cover part , and that after the set-up step, in a post-treatment step, a pressure is applied to the cover part by means of a pressure piece such that the anti-mould agent is distributed under the cover part and can adhere to the surface to be treated.
An apparatus comprising: processing circuitry to perform data processing in response to instructions of one of a plurality of software execution environments; at least one memory system component to handle memory transactions for accessing data, each memory transaction specifying a partition identifier allocated to a software execution environment associated with said memory transaction, said at least one memory system component being configured to select one of a plurality of sets of memory transaction progression parameters associated with said partition identifier specified by a memory transaction to be handled; and memory transaction progression control circuitry to control progression of said memory transaction in dependence on said selected set of memory transaction progression parameters. processing circuitry to perform data processing in response to instructions of one of a plurality of software execution environments; at least one memory system component to handle memory transactions for accessing data, each memory transaction specifying a partition identifier allocated to a software execution environment associated with said memory transaction, said at least one memory system component being configured to select one of a plurality of sets of memory transaction progression parameters associated with said partition identifier specified by a memory transaction to be handled; and memory transaction progression control circuitry to control progression of said memory transaction in dependence on said selected set of memory transaction progression parameters.
A computerized controller device for an oil free chiller configured for dynamically determining an actual refrigerant film thickness at a bearing of the oil free chiller during operation of the oil free chiller , and for controlling other components of the oil free chiller to change a refrigerant film thickness at the bearing , when the actual refrigerant film thickness is different from a threshold refrigerant film thickness, wherein the computerized controller device determines the actual refrigerant film thickness at the bearing of the oil free chiller during operation of the oil free chiller based on temperature and rotation speed of the bearing .
A module for use in a wireless communication apparatus for communicating with a terminal, comprising: a first printed circuit board, PCB configured by stacking a plurality of substrates; a plurality of antennas formed on a first side of the first PCB ; a plurality of antenna modules for the plurality of antennas , each antenna module of the plurality of antenna modules comprises: a radio frequency integrated circuit, RFIC, chip ; and a second PCB configured by stacking a plurality of substrates and configured to electrically connect the RFIC chip to the first PCB , wherein the second PCB has a smaller surface area than the first PCB and second PCBs of the plurality of antenna modules are spaced apart from each other, wherein a first side of the second PCB is coupled to a second side of the first PCB opposite to the first side of the first PCB via a grid array, wherein a second side opposite to the first side of the second PCB is coupled with the RFIC chip , and wherein the module is configured to operate in an array antenna scheme. a first printed circuit board, PCB configured by stacking a plurality of substrates; a plurality of antennas formed on a first side of the first PCB ; a plurality of antenna modules for the plurality of antennas , each antenna module of the plurality of antenna modules comprises: a radio frequency integrated circuit, RFIC, chip ; and a second PCB configured by stacking a plurality of substrates and configured to electrically connect the RFIC chip to the first PCB , a radio frequency integrated circuit, RFIC, chip ; and a second PCB configured by stacking a plurality of substrates and configured to electrically connect the RFIC chip to the first PCB , wherein the second PCB has a smaller surface area than the first PCB and second PCBs of the plurality of antenna modules are spaced apart from each other, wherein a first side of the second PCB is coupled to a second side of the first PCB opposite to the first side of the first PCB via a grid array, wherein a second side opposite to the first side of the second PCB is coupled with the RFIC chip , and wherein the module is configured to operate in an array antenna scheme.
A computing unit for securely performing an operation on encrypted data in an Internet of Things, IoT, environment , the computing unit comprising a secure element , at least one processor and at least one memory , the at least one memory containing instructions executable by the at least one processor such that the computing unit is operable to: obtain (S302) encrypted data collected by a sensor provided in the IoT environment ; pass (S304) the encrypted data to the secure element requesting the secure element to decrypt the encrypted data and to perform an operation on the decrypted data; obtain (S306) a result of the operation from the secure element , wherein the operation is a comparison operation between two or more portions of the encrypted data, wherein the result of the operation is an unencrypted Boolean value, and wherein the decrypted data is not visible to the computing unit ; and perform a conditional branch in a program flow based on the result of the operation. obtain (S302) encrypted data collected by a sensor provided in the IoT environment ; pass (S304) the encrypted data to the secure element requesting the secure element to decrypt the encrypted data and to perform an operation on the decrypted data; obtain (S306) a result of the operation from the secure element , wherein the operation is a comparison operation between two or more portions of the encrypted data, wherein the result of the operation is an unencrypted Boolean value, and wherein the decrypted data is not visible to the computing unit ; and perform a conditional branch in a program flow based on the result of the operation.
A communication apparatus being a 20 MHz operating station comprising: a receiver which is configured to receive a Trigger frame allocating resource units, RUs, for random access and another frame including a Random Access parameter element that comprises a first field indicating an OFDMA contention window, OCW, minimum value, OCWmin, and a second field indicating an OCW maximum value, OCWmax ; and control circuitry which is configured to control an Uplink OFDMA-based Random Access, UORA, procedure using the OCWmin and the OCWmax, and the control circuitry being further configured to: decrement an OFDMA Back-Off, OBO, counter to zero when the OBO counter is not greater than a number of available RUs for random access in the Trigger frame, the available RUs being RUs unrestricted from being used for the 20 MHz operating station, wherein the RUs include at least one RU restricted from being used for the 20 MHz operating station; and decrement the OBO counter by the number of available RUs for random access otherwise. a receiver which is configured to receive a Trigger frame allocating resource units, RUs, for random access and another frame including a Random Access parameter element that comprises a first field indicating an OFDMA contention window, OCW, minimum value, OCWmin, and a second field indicating an OCW maximum value, OCWmax ; and control circuitry which is configured to control an Uplink OFDMA-based Random Access, UORA, procedure using the OCWmin and the OCWmax, and the control circuitry being further configured to: decrement an OFDMA Back-Off, OBO, counter to zero when the OBO counter is not greater than a number of available RUs for random access in the Trigger frame, the available RUs being RUs unrestricted from being used for the 20 MHz operating station, wherein the RUs include at least one RU restricted from being used for the 20 MHz operating station; and decrement the OBO counter by the number of available RUs for random access otherwise. decrement an OFDMA Back-Off, OBO, counter to zero when the OBO counter is not greater than a number of available RUs for random access in the Trigger frame, the available RUs being RUs unrestricted from being used for the 20 MHz operating station, wherein the RUs include at least one RU restricted from being used for the 20 MHz operating station; and decrement the OBO counter by the number of available RUs for random access otherwise.
An acoustic transducer comprising: a flexible membrane , a back plate ; and a tension actuator for tensioning the flexible membrane , the tension actuator comprising an electrically controllable means for altering a tension of the flexible membrane , characterized in that the electrically controllable means comprises a membrane tensioning ring for exerting a force on the flexible membrane ; the membrane tensioning ring is electrically isolated from the back plate ; the membrane tensioning ring is configured to receive an electrical or electrostatic charge; and the flexible membrane is charged and the force is substantially defined based on respective charges of the membrane tensioning ring and the flexible membrane . a flexible membrane , a back plate ; and a tension actuator for tensioning the flexible membrane , the tension actuator comprising an electrically controllable means for altering a tension of the flexible membrane , characterized in that the electrically controllable means comprises a membrane tensioning ring for exerting a force on the flexible membrane ; the membrane tensioning ring is electrically isolated from the back plate ; the membrane tensioning ring is configured to receive an electrical or electrostatic charge; and the flexible membrane is charged and the force is substantially defined based on respective charges of the membrane tensioning ring and the flexible membrane .
A method for encoding a source word for transmission, comprising: segmenting a stream of data bits Into 336 bit size segments; adding 336 padding bits to each 336 bit size segment to generate corresponding 672 bit size source words; applying a 1⁄2 rate low density parity check, LDPC, coding to each 672 bit size source word to generate a corresponding 1344 bit size codeword that includes 672 parity bits; and for each codeword, substituting the 336 padding bits with 336 bits derived from the data bits included in the codeword, to provide a 1344 bit size codeword that includes a concatenation of the 336 data bits, the 336 bits derived from the data bits, and 672 parity bits, wherein the method further comprises: mapping the bits of the codewords to BPSK symbols; blocking the BPSK symbols into data blocks and assembling the data blocks into an IEEE 802.11ay standard compliant frame for single carrier transmission. segmenting a stream of data bits Into 336 bit size segments; adding 336 padding bits to each 336 bit size segment to generate corresponding 672 bit size source words; applying a 1⁄2 rate low density parity check, LDPC, coding to each 672 bit size source word to generate a corresponding 1344 bit size codeword that includes 672 parity bits; and for each codeword, substituting the 336 padding bits with 336 bits derived from the data bits included in the codeword, to provide a 1344 bit size codeword that includes a concatenation of the 336 data bits, the 336 bits derived from the data bits, and 672 parity bits, wherein the method further comprises: mapping the bits of the codewords to BPSK symbols; blocking the BPSK symbols into data blocks and assembling the data blocks into an IEEE 802.11ay standard compliant frame for single carrier transmission. mapping the bits of the codewords to BPSK symbols; blocking the BPSK symbols into data blocks and assembling the data blocks into an IEEE 802.11ay standard compliant frame for single carrier transmission.
A drug cassette for removable attachment to a drive module to define a medication delivery device , the cassette comprising: a cassette housing configured to be attached to and detached from the drive module; a container body to hold a medication and defining an outlet; a piston disposed within the container body; a drive ribbon (R, 370) disposed within the cassette housing to advance the piston within the container body, wherein the drive ribbon includes a distal edge section and a proximal edge section, the drive ribbon being incrementally movable between a retracted configuration and an extended configuration about a drive axis, wherein a retracted portion of the drive ribbon in the retracted configuration defines a spiral and an extended portion of the drive ribbon in the extended configuration defines a helix; and a driven member engaged with the drive ribbon, wherein in response to a rotation of the driven member the drive ribbon is axially extended and the piston is advanced within the container body to expel the medication through the outlet. a cassette housing configured to be attached to and detached from the drive module; a container body to hold a medication and defining an outlet; a piston disposed within the container body; a drive ribbon (R, 370) disposed within the cassette housing to advance the piston within the container body, wherein the drive ribbon includes a distal edge section and a proximal edge section, the drive ribbon being incrementally movable between a retracted configuration and an extended configuration about a drive axis, wherein a retracted portion of the drive ribbon in the retracted configuration defines a spiral and an extended portion of the drive ribbon in the extended configuration defines a helix; and a driven member engaged with the drive ribbon, wherein in response to a rotation of the driven member the drive ribbon is axially extended and the piston is advanced within the container body to expel the medication through the outlet.
Arrangement for vibration decoupling of an engine for motorized two-wheeled vehicles having a drive unit swinging fork which is mounted so as to be rotatable about a first axle , wherein the first axle is mounted rotatably on the vehicle frame of the two-wheeled vehicle by means of a decoupling swinging fork on a second axle , and wherein, furthermore, a support rod equipped with damping buffers is provided on the drive unit swinging fork , the orientation of which support rod is selected such that vibration decoupling is effected in and counter to the vehicle longitudinal direction (F) and/or cylinder direction, wherein the second axle is, as decoupling axle, mounted rotatably on frame-side fastening lugs , characterized in that the decoupling swinging fork has the second axle and two connecting arms with in each case one fastening element arranged at both ends for the first and second axle .
A method of reducing the volume of float bath atmosphere lost from an exit end of a float bath, the float bath comprising an enclosure for containing the bath atmosphere, the exit end comprising a first opening through which a ribbon of glass supported on a pool of molten metal contained in the enclosure can pass from inside the enclosure to a conveying means positioned outside the enclosure, the conveying means configured to convey the ribbon of glass in a first direction of conveyance away from the enclosure along a conveyance plane towards a second opening , the method comprising the step of (i) directing at least one (a first) jet of fluid towards the conveyance plane, the first jet of fluid having a first jet velocity and a subsequent second jet velocity , the first jet velocity of the first jet of fluid having a first jet speed and a first jet direction and the second jet velocity of the first jet of fluid having a second jet speed and a second jet direction and wherein the first jet of fluid is caused to change direction such that the second jet direction of the first jet of fluid is different to the first jet direction of the first jet of fluid; further wherein the first jet of fluid having the second jet velocity is directed towards the conveyance plane downstream of the second opening and the first jet of fluid having the second jet velocity changes from the second jet velocity to a third jet velocity due to the presence of an obstruction in the path of the first jet of fluid having the second velocity to reduce the volume of bath atmosphere lost from the float bath via the second opening, preferably wherein the obstruction is positioned outside of the second opening.