mhurhangee/ep-ind-claims huggingface dataset:
Pressure compensation and mixing device for a fluid heater, with: - a mixing unit (5, 5a, 9, 10) and a pressure compensation unit, wherein - the mixing unit (5, 5a, 9, 10) is used for mixing a fluid guided in the mixing unit; - the pressure compensation unit is used for restricting pressure rising in the fluid; - the mixing unit (5, 5a, 9, 10) and the pressure compensation unit are integrated in a container unit; - the mixing unit has a fluid receiving mixing volume; - the pressure compensation unit has an air receiving pressure compensation volume; - the mixing volume and the pressure compensation volume adjoin each other and are separated from each other at least partially by a common separating wall; - the pressure compensation unit has a chamber for receiving the pressure compensation volume; characterized in that: - the chamber has at least one opening; - the opening is provided in the lower region of the chamber such that in the upper region of the chamber above the opening the pressure compensation volume is includable as air volume; and wherein - the chamber has direct connection with the mixing volume via the opening. - a mixing unit (5, 5a, 9, 10) and a pressure compensation unit, wherein - the mixing unit (5, 5a, 9, 10) is used for mixing a fluid guided in the mixing unit; - the pressure compensation unit is used for restricting pressure rising in the fluid; - the mixing unit (5, 5a, 9, 10) and the pressure compensation unit are integrated in a container unit; - the mixing unit has a fluid receiving mixing volume; - the pressure compensation unit has an air receiving pressure compensation volume; - the mixing volume and the pressure compensation volume adjoin each other and are separated from each other at least partially by a common separating wall; - the pressure compensation unit has a chamber for receiving the pressure compensation volume; characterized in that: - the chamber has at least one opening; - the opening is provided in the lower region of the chamber such that in the upper region of the chamber above the opening the pressure compensation volume is includable as air volume; and wherein - the chamber has direct connection with the mixing volume via the opening. - the chamber has at least one opening; - the opening is provided in the lower region of the chamber such that in the upper region of the chamber above the opening the pressure compensation volume is includable as air volume; and wherein - the chamber has direct connection with the mixing volume via the opening.
A non-combustion type flavor inhaler comprising: a reservoir storing an aerosol source; a transfer unit transferring the aerosol source from upstream of the liquid surface forming location to a liquid surface forming location at which a liquid surface of the aerosol source is formed, the transfer unit being configured to form the liquid surface; a suction port arranged downstream of the liquid surface forming location; a first atomizer atomizing the aerosol source located upstream of the liquid surface forming location; and a second atomizer atomizing a droplet generated from the liquid surface formed at the liquid surface forming location, the droplet being located downstream of the liquid surface forming location. a reservoir storing an aerosol source; a transfer unit transferring the aerosol source from upstream of the liquid surface forming location to a liquid surface forming location at which a liquid surface of the aerosol source is formed, the transfer unit being configured to form the liquid surface; a suction port arranged downstream of the liquid surface forming location; a first atomizer atomizing the aerosol source located upstream of the liquid surface forming location; and a second atomizer atomizing a droplet generated from the liquid surface formed at the liquid surface forming location, the droplet being located downstream of the liquid surface forming location.
A method of metering a preselected volume of hydrogen peroxide passing through a metering unit into an evaporator under vacuum, comprising the steps of a) connecting a passage of a fixed known volume in the metering unit to the evaporator under vacuum and at a downstream end of the passage to evacuate the passage; b) sealing the passage; c) connecting the passage at an upstream end to a supply of hydrogen peroxide solution for a time sufficient to draw the hydrogen peroxide solution into the evacuated passage and fill the passage with the hydrogen peroxide solution; d) sealing the passage; and e) repeating steps a) to d) X number of times, X being the ratio of preselected volume/known volume of hydrogen peroxide. a) connecting a passage of a fixed known volume in the metering unit to the evaporator under vacuum and at a downstream end of the passage to evacuate the passage; b) sealing the passage; c) connecting the passage at an upstream end to a supply of hydrogen peroxide solution for a time sufficient to draw the hydrogen peroxide solution into the evacuated passage and fill the passage with the hydrogen peroxide solution; d) sealing the passage; and e) repeating steps a) to d) X number of times, X being the ratio of preselected volume/known volume of hydrogen peroxide.
A physical downlink control channel, PDCCH, monitoring method by a user equipment, UE, comprising: receiving high layer signaling including PDCCH monitoring configuration information for the target active downlink BWP on a current active downlink BWP, wherein the PDCCH monitoring configuration information indicates relationship between PDCCH monitoring configuration for the current active downlink BWP and PDCCH monitoring configuration for the target active downlink BWP; determining the PDCCH monitoring configuration for the target active downlink BWP, based on the relationship, after a current active downlink BWP is switched to the target active downlink BWP;performing a monitoring process on the PDCCH based on the PDCCH monitoring configuration for the target active downlink BWP, wherein the PDCCH monitoring configuration for the target active downlink BWP comprises at least one of the followings: a periodicity of PDCCH monitoring; the number of PDCCH monitoring times; an aggregation level, AL, of a control channel unit, CCE, of PDCCH monitoring. receiving high layer signaling including PDCCH monitoring configuration information for the target active downlink BWP on a current active downlink BWP, wherein the PDCCH monitoring configuration information indicates relationship between PDCCH monitoring configuration for the current active downlink BWP and PDCCH monitoring configuration for the target active downlink BWP; determining the PDCCH monitoring configuration for the target active downlink BWP, based on the relationship, after a current active downlink BWP is switched to the target active downlink BWP;performing a monitoring process on the PDCCH based on the PDCCH monitoring configuration for the target active downlink BWP, wherein the PDCCH monitoring configuration for the target active downlink BWP comprises at least one of the followings: a periodicity of PDCCH monitoring; the number of PDCCH monitoring times; an aggregation level, AL, of a control channel unit, CCE, of PDCCH monitoring. a periodicity of PDCCH monitoring; the number of PDCCH monitoring times; an aggregation level, AL, of a control channel unit, CCE, of PDCCH monitoring.
A method of wireless communication, comprising: determining (702, 802) a first set of channels for communicating with an apparatus (502, 504), wherein each channel in the first set is determined by performing beam training with the apparatus; determining (704, 804) a second set of channels from the first set, wherein the channels of the second set have a channel condition greater than a threshold; and communicating (710, 810) data via the second set, wherein a channel of the second set on which the data is communicated is based on the channel condition of at least one channel of the second set. determining (702, 802) a first set of channels for communicating with an apparatus (502, 504), wherein each channel in the first set is determined by performing beam training with the apparatus; determining (704, 804) a second set of channels from the first set, wherein the channels of the second set have a channel condition greater than a threshold; and communicating (710, 810) data via the second set, wherein a channel of the second set on which the data is communicated is based on the channel condition of at least one channel of the second set.
A method of operating a wireless device in a wireless communication network, wherein the wireless device is a user equipment and/or a mobile terminal, and wherein the wireless device is adapted to transmit data on a second transmission frequency spectrum which is licensed and accessed based on pre-determined communication schedules, each communication schedule pertaining to a scheduling time interval of predetermined length, the method comprising - dynamically determining, by the wireless device, a Listen-Before-Talk, LBT, pattern of expected transmission accesses on at least a first transmission frequency spectrum which is unlicensed and accessed with LBT, the pattern covering a plurality of scheduling time intervals and comprising information indicating at which scheduling time intervals the wireless device is expected to perform a transmission access, wherein determining the pattern of expected transmission is based on one of, or any combination of: - one or more uplink scheduling grants, - one or more HARQ retransmission patterns, - one or more patterns of reference signal transmissions, - one or more patterns of resources restricted for scheduling data, and - statistics of one or more patterns of a LBT time interval; and configuring the wireless device according to the pattern. - dynamically determining, by the wireless device, a Listen-Before-Talk, LBT, pattern of expected transmission accesses on at least a first transmission frequency spectrum which is unlicensed and accessed with LBT, the pattern covering a plurality of scheduling time intervals and comprising information indicating at which scheduling time intervals the wireless device is expected to perform a transmission access, wherein determining the pattern of expected transmission is based on one of, or any combination of: - one or more uplink scheduling grants, - one or more HARQ retransmission patterns, - one or more patterns of reference signal transmissions, - one or more patterns of resources restricted for scheduling data, and - statistics of one or more patterns of a LBT time interval; and configuring the wireless device according to the pattern. - one or more uplink scheduling grants, - one or more HARQ retransmission patterns, - one or more patterns of reference signal transmissions, - one or more patterns of resources restricted for scheduling data, and - statistics of one or more patterns of a LBT time interval; and configuring the wireless device according to the pattern.
Apparatus for processing data comprising: processing circuitry configured to execute a stream of program instructions; a first hardware memory protection unit configured: to receive a physical address directly specifying a memory address location within a memory for a memory access operation to be performed by said processing circuitry; and to determine in accordance with a first set of permissions whether or not said memory access operation is permitted; and a second hardware memory protection unit configured: to receive said physical address; and to determine in accordance with a second set of permissions whether or not said memory access operation is permitted; whereby said memory access operation is permitted only if it satisfies both said first set of permissions and said second set of permissions; wherein said processing circuitry is configured to operate at selectable exception level within a hierarchy of exception levels (ELO, EL1, EL2); characterized in that: when operating at a first exception level within said hierarchy of exception levels, said processing circuitry is permitted to change said first set of permissions and is not permitted to change said second set of permissions; and when operating at a second exception level within said hierarchy of exception levels, said processing circuitry is permitted to change said second set of permissions. processing circuitry configured to execute a stream of program instructions; a first hardware memory protection unit configured: to receive a physical address directly specifying a memory address location within a memory for a memory access operation to be performed by said processing circuitry; and to determine in accordance with a first set of permissions whether or not said memory access operation is permitted; and to receive a physical address directly specifying a memory address location within a memory for a memory access operation to be performed by said processing circuitry; and to determine in accordance with a first set of permissions whether or not said memory access operation is permitted; and a second hardware memory protection unit configured: to receive said physical address; and to determine in accordance with a second set of permissions whether or not said memory access operation is permitted; whereby to receive said physical address; and to determine in accordance with a second set of permissions whether or not said memory access operation is permitted; whereby said memory access operation is permitted only if it satisfies both said first set of permissions and said second set of permissions; wherein said processing circuitry is configured to operate at selectable exception level within a hierarchy of exception levels (ELO, EL1, EL2); when operating at a first exception level within said hierarchy of exception levels, said processing circuitry is permitted to change said first set of permissions and is not permitted to change said second set of permissions; and when operating at a second exception level within said hierarchy of exception levels, said processing circuitry is permitted to change said second set of permissions.
An rAAV2 particle comprising an AAV2 capsid protein and a vector comprising a nucleic acid encoding a therapeutic protein inserted between a pair of AAV inverted terminal repeats for use in treating a lysosomal storage disease in a non-rodent mammal, wherein the rAAV2 particle is to be administered to the non-rodent mammal by intraventricular injection or ICV delivery, wherein the protein is tripeptidyl peptidase 1, wherein the LSD is late infantile ceroid lipofuscinoses (LINCL), and wherein the non-rodent mammal is a dog, primate or human.
A process for removing impurities from textiles comprising cellulosic fibres or a mixture of cellulosic fibres and non-cellulosic fibres, wherein the process comprises at least one pre-treatment procedure, wherein the pre-treatment procedure comprises at least a desizing step using a saccharifying enzyme, a scouring step using a pectinolytic enzyme and a bleaching step using an alkaline composition comprising H 2 O 2, characterized in that the pre-treatment procedure comprises contacting textiles comprising cellulosic fibres or a mixture of cellulosic fibres and non-cellulosic fibres with at least polyvinylpyrrolidone polymer in in all three steps.
A metrology system comprising: a controller couplable to a metrology sub-system, the controller including one or more processors configured to execute program instructions causing the one or more processors to: receive a plurality of image signals of a first metrology target disposed on the sample from the metrology sub-system corresponding to a respective plurality of sets of different optical measurement conditions; determine a plurality of harmonic detectivity metric values by calculating a harmonic detectivity metric value for each of the plurality of image signals; identify a harmonic detectivity metric value calculated for a set of optical measurement conditions of the metrology sub-system among said plurality of harmonic detectivity metric values, for which said set of optical measurement conditions defines an optimal recipe for optical metrology measurements of the metrology sub-system; and provide the recipe to the metrology sub-system for execution of one or more optical metrology measurements of one or more additional metrology targets; wherein a respective harmonic detectivity metric value of a respective image signal is a function of harmonic signal intensity of the respective image signal, anharmonic noise of the respective image signal, and surface reflectivity of the first metrology target; wherein the respective harmonic detectivity metric value of a respective image signal is monotonically dependent on harmonic signal intensity of the respective image signal, anharmonic noise of the respective image signal, and surface reflectivity of the first metrology target. receive a plurality of image signals of a first metrology target disposed on the sample from the metrology sub-system corresponding to a respective plurality of sets of different optical measurement conditions; determine a plurality of harmonic detectivity metric values by calculating a harmonic detectivity metric value for each of the plurality of image signals; identify a harmonic detectivity metric value calculated for a set of optical measurement conditions of the metrology sub-system among said plurality of harmonic detectivity metric values, for which said set of optical measurement conditions defines an optimal recipe for optical metrology measurements of the metrology sub-system; and provide the recipe to the metrology sub-system for execution of one or more optical metrology measurements of one or more additional metrology targets; wherein a respective harmonic detectivity metric value of a respective image signal is a function of harmonic signal intensity of the respective image signal, anharmonic noise of the respective image signal, and surface reflectivity of the first metrology target; wherein the respective harmonic detectivity metric value of a respective image signal is monotonically dependent on harmonic signal intensity of the respective image signal, anharmonic noise of the respective image signal, and surface reflectivity of the first metrology target.
A reflection member for shot peening, that is used for reflecting shots projected in the shot peening, comprising: a wire; and a reflection portion that is provided around the wire and reflects the shots; characterized in a guide portion that is fixed at both sides of the reflection portion around the wire and has a hole through which the shots pass in an axial direction of the wire, wherein the reflection portion is rotatably provided around the wire. a wire; and a reflection portion that is provided around the wire and reflects the shots; characterized in a guide portion that is fixed at both sides of the reflection portion around the wire and has a hole through which the shots pass in an axial direction of the wire, wherein the reflection portion is rotatably provided around the wire.
A method, in a processor, for executing a cryptographic computation wherein output data are generated from input data employing a cryptographic key and via the generation of intermediate values (x, y), wherein upon the execution of the computation a base masking (XOR; α) is applied through which at least some intermediate values (x, y,...) are incorporated into the computation as masked intermediate values ( x XOR, y XOR,...; x α, y α....), characterized in that a secondary masking (00/FF) is additionally applied upon the execution of the computation, wherein for each intermediate value ( x XOR; x α) masked by means of the base masking (XOR; α) the one's complement ( x XOR; x α) of the masked intermediate value ( x XOR; x α) is formed, the masked intermediate value ( x XOR; x α) and the one's complement ( x XOR; x α) of the masked intermediate value ( x XOR; x α) are made available, and randomly the computation is executed either with the masked intermediate value ( x XOR; x α) or with the one's complement ( x XOR; x α) of the masked intermediate value ( x XOR; x α).
A method for the operation of a refrigerator unit and/or a freezer unit having two compartments or more than two compartments (10, 20, 30) which each have at least one opening which is closable by a closure element (14, 24, 34) and through which the compartments (10, 20, 30) can be charged with cold air, with at least one temperature sensor (12, 22, 32) being provided for the indirect or direct detection of the respective actual temperature value of the compartments (10, 20, 30), characterized in that a closing value is defined for a plurality of the compartments (10, 20, 30) or for all of the compartments (10, 20, 30); in that the compartment (10, 20, 30) with the lowest temperature difference between the actual temperature value and the closing value is determined; and in that the closure element (14, 24, 34) of this compartment (10, 20, 30) is closed until this temperature difference is the same as or larger than the temperature difference of a compartment (10, 20, 30) having a larger temperature difference, preferably having the next larger temperature difference.
Optical instrument for capturing stereo images, comprising: two optical devices for producing a real image in each case; two carriages arranged at or near the proximal end of the optical instrument, said carriages each being movable along a predetermined path relative to the optical devices and lockable; each of the carriages being movable only in the direction parallel to the longitudinal axis of the optical instrument, two image sensors, each with a light-sensitive surface for capturing the respective real image, with one of the image sensors in each case being fastened to the carriages; one reflecting surface in the beam path between the optical device and the image sensor in each case. two optical devices for producing a real image in each case; two carriages arranged at or near the proximal end of the optical instrument, said carriages each being movable along a predetermined path relative to the optical devices and lockable; each of the carriages being movable only in the direction parallel to the longitudinal axis of the optical instrument, two image sensors, each with a light-sensitive surface for capturing the respective real image, with one of the image sensors in each case being fastened to the carriages; one reflecting surface in the beam path between the optical device and the image sensor in each case.
A laundry drying machine, comprising a drying compartment and a condensation compartment that is in fluid communication with the drying compartment, wherein a first heat exchange apparatus is disposed in the condensation compartment, wherein the first heat exchange apparatus is an cooling water supply apparatus, an air cooling apparatus or a heat pump evaporator, the drying compartment is separated from the condensation compartment by a common separation wall, and the separation wall separately constitutes a part of a wall of the drying compartment and a part of a wall of the condensation compartment, characterized in that a second heat exchange apparatus comprises a refrigerant channel, the second heat exchange apparatus is adapted to exchange heat with air in the drying compartment and the condensation compartment, and is disposed on the separation wall and further accelerates condensation of water in the air.