mhurhangee/patent-ind-claim-en huggingface dataset:
Nacelle of a wind turbine , comprising: - at least one housing with an outer side and an inner side, and - at least one component located within the housing and to be cooled, - wherein at least two cooling fins (102, 202, 202.1, 202.2, 202.3, 202.4, 202.5, 202.6) are arranged on the outer side of the housing , - wherein at least two cooling fins (102, 202, 202.1, 202.2, 202.3, 202.4, 202.5, 202.6) are arranged parallel to the rotor axis or at least one cooling fin (102, 202, 202.1, 202.2, 202.3, 202.4, 202.5, 202.6) is inclined relative to the rotor axis by an angle of inclination , wherein the angle of inclination is between 2° and 85°, characterized in that - a first cooling fin (102, 202, 202.1, 202.2, 202.3, 202.4, 202.5, 202.6) has a smaller distance from a rotor arranged on the nacelle compared to the at least one further cooling fin (102, 202, 202.1, 202.2, 202.3, 202.4, 202.5, 202.6), and - the height of the first cooling fin (102, 202, 202.1, 202.2, 202.3, 202.4, 202.5, 202.6) is at least less than the height of the at least one further cooling fin (102, 202, 202.1, 202.2, 202.3, 202.4, 202.5, 202.6), - at least one housing with an outer side and an inner side, and - at least one component located within the housing and to be cooled, - wherein at least two cooling fins (102, 202, 202.1, 202.2, 202.3, 202.4, 202.5, 202.6) are arranged on the outer side of the housing , - wherein at least two cooling fins (102, 202, 202.1, 202.2, 202.3, 202.4, 202.5, 202.6) are arranged parallel to the rotor axis or at least one cooling fin (102, 202, 202.1, 202.2, 202.3, 202.4, 202.5, 202.6) is inclined relative to the rotor axis by an angle of inclination , wherein the angle of inclination is between 2° and 85°, characterized in that - a first cooling fin (102, 202, 202.1, 202.2, 202.3, 202.4, 202.5, 202.6) has a smaller distance from a rotor arranged on the nacelle compared to the at least one further cooling fin (102, 202, 202.1, 202.2, 202.3, 202.4, 202.5, 202.6), and - the height of the first cooling fin (102, 202, 202.1, 202.2, 202.3, 202.4, 202.5, 202.6) is at least less than the height of the at least one further cooling fin (102, 202, 202.1, 202.2, 202.3, 202.4, 202.5, 202.6),
An air conditioning ventilation system comprising: an air conditioner ; a ventilator ; an indoor environment sensor configured to detect an indoor environment; and a control unit configured to control operations of the air conditioner and the ventilator, wherein the control unit is configured to cause the air conditioner to perform a compensation operation for compensating for a change in indoor temperature and/or humidity due to a ventilation operation prior to the ventilation operation to be performed by the ventilator, characterized in that the control unit is configured to determine a start timing of the compensation operation based on a detection value of the indoor environment sensor to start the compensation operation when the detection value of the indoor environment sensor exceeds a second threshold value, and determine a start timing of the ventilation operation based on a detection value of the indoor environment sensor to start the ventilation operation when the detection value of the indoor environment sensor exceeds a first threshold value higher than the second threshold value. an air conditioner ; a ventilator ; an indoor environment sensor configured to detect an indoor environment; and a control unit configured to control operations of the air conditioner and the ventilator, wherein the control unit is configured to cause the air conditioner to perform a compensation operation for compensating for a change in indoor temperature and/or humidity due to a ventilation operation prior to the ventilation operation to be performed by the ventilator, characterized in that the control unit is configured to determine a start timing of the compensation operation based on a detection value of the indoor environment sensor to start the compensation operation when the detection value of the indoor environment sensor exceeds a second threshold value, and determine a start timing of the ventilation operation based on a detection value of the indoor environment sensor to start the ventilation operation when the detection value of the indoor environment sensor exceeds a first threshold value higher than the second threshold value. determine a start timing of the compensation operation based on a detection value of the indoor environment sensor to start the compensation operation when the detection value of the indoor environment sensor exceeds a second threshold value, and determine a start timing of the ventilation operation based on a detection value of the indoor environment sensor to start the ventilation operation when the detection value of the indoor environment sensor exceeds a first threshold value higher than the second threshold value.
A method for wireless communications, comprising: identifying a plurality of resource units for communication with a transmitting station, STA; receiving data from the transmitting STA in at least a first resource unit of the plurality of resource units; characterized in that the method comprises communicating with the transmitting STA in at least a second resource unit of the plurality of resource units, wherein the communicating comprises receiving or transmitting information that is different from the received data of the first resource unit, and wherein at least a portion of data is received simultaneously with receiving or transmitting a portion of the information communicated with the transmitting STA. identifying a plurality of resource units for communication with a transmitting station, STA; receiving data from the transmitting STA in at least a first resource unit of the plurality of resource units; characterized in that the method comprises communicating with the transmitting STA in at least a second resource unit of the plurality of resource units, wherein the communicating comprises receiving or transmitting information that is different from the received data of the first resource unit, and wherein at least a portion of data is received simultaneously with receiving or transmitting a portion of the information communicated with the transmitting STA.
A method of adjusting flow through a valve to control a rotational speed of a turbine shaft in a turbine pump assembly , comprising: adjusting flow through a valve by altering temperature of at least one of a first member , made of a first material with a first coefficient of thermal expansion, and a second member , made of a second material having a second coefficient of thermal expansion, the first member and the second member defining at least a portion of a flow passageway therebetween, wherein the first member is a sleeve and the second member is disposed within the sleeve, the second member being axially movable relative to the first member , the second member being operably connected to a biasing member of the turbine pump assembly such that the biasing member biases the second member relative to the first member in a direction that causes an increase in the axial distance, wherein at least one connecting member is configured to convert a radial movement into an axial movement of the second member toward the biasing member ; altering at least one dimension of at least one of the first member and the second member with the altering of temperature thereof; changing a flow area of the flow passageway with the altering of the at least one dimension; changing the flow area of the flow passageway by moving the first member relative to the second member independent of the changes in temperature; and moving the second member relative to the member proportional to a rotational speed of a fly weight governor assembly. adjusting flow through a valve by altering temperature of at least one of a first member , made of a first material with a first coefficient of thermal expansion, and a second member , made of a second material having a second coefficient of thermal expansion, the first member and the second member defining at least a portion of a flow passageway therebetween, wherein the first member is a sleeve and the second member is disposed within the sleeve, the second member being axially movable relative to the first member , the second member being operably connected to a biasing member of the turbine pump assembly such that the biasing member biases the second member relative to the first member in a direction that causes an increase in the axial distance, wherein at least one connecting member is configured to convert a radial movement into an axial movement of the second member toward the biasing member ; altering at least one dimension of at least one of the first member and the second member with the altering of temperature thereof; changing a flow area of the flow passageway with the altering of the at least one dimension; changing the flow area of the flow passageway by moving the first member relative to the second member independent of the changes in temperature; and moving the second member relative to the member proportional to a rotational speed of a fly weight governor assembly.
A compound which is selected from the following: Compound No. Structure 334 337 338 339 340 341 350 351 352 358 360 360-0A 362 362-0A
Dissolved oxygen removal system for removing dissolved oxygen from water (w) containing dissolved oxygen, comprising a gas-liquid contactor means being configured to dissolve a reducing agent in said water (w) containing dissolved oxygen, and an electrical discharging means being configured to generate oxygen radicals (O ∗ ) in the water (w) containing dissolved oxygen and/or in dissolved oxygen containing water (w') in which said reducing agent has been dissolved, wherein the gas-liquid contactor means and the electrical discharging means are configured as one single, integrated device that comprises a water through-flow space in which at least one, preferably a plurality of electrode pair(s) being configured for the application of an electrical potential difference and having a narrow gap configuration is/are arranged and wherein the integrated device is configured to feed said water (w) containing dissolved oxygen into said water through-flow space , to dissolve, in said water through-flow space , said reducing agent in said water (w, w') containing dissolved oxygen, to generate, in said water through-flow space , said oxygen radicals (O ∗ ) in said water (w, w') containing dissolved oxygen, and to discharge the water from said water through-flow space , characterized by further comprising a reducing agent generating device being configured to generate said reducing agent to be dissolved in said water (w) containing dissolved oxygen, wherein said reducing agent generating device is configured to generate hydrogen (H) by water electrolysis. a gas-liquid contactor means being configured to dissolve a reducing agent in said water (w) containing dissolved oxygen, and an electrical discharging means being configured to generate oxygen radicals (O ∗ ) in the water (w) containing dissolved oxygen and/or in dissolved oxygen containing water (w') in which said reducing agent has been dissolved, wherein the gas-liquid contactor means and the electrical discharging means are configured as one single, integrated device that comprises a water through-flow space in which at least one, preferably a plurality of electrode pair(s) being configured for the application of an electrical potential difference and having a narrow gap configuration is/are arranged and wherein the integrated device is configured to feed said water (w) containing dissolved oxygen into said water through-flow space , to dissolve, in said water through-flow space , said reducing agent in said water (w, w') containing dissolved oxygen, to generate, in said water through-flow space , said oxygen radicals (O ∗ ) in said water (w, w') containing dissolved oxygen, and to discharge the water from said water through-flow space , further comprising a reducing agent generating device being configured to generate said reducing agent to be dissolved in said water (w) containing dissolved oxygen, wherein said reducing agent generating device is configured to generate hydrogen (H) by water electrolysis.
A node deployment system comprising: a cable supply configured to provide a cable for attachment of one or more nodes , the one or more nodes configured for deployment to a water column along the cable ; and a coupling apparatus configured to drive the cable , characterised in that the coupling apparatus comprises a cable buffering system configured to reduce an attachment speed of one or more selected positions along the cable when adjacent to the coupling apparatus for attachment of the one or more nodes , without changing a deployment speed at which the cable is deployed to the water column . a cable supply configured to provide a cable for attachment of one or more nodes , the one or more nodes configured for deployment to a water column along the cable ; and a coupling apparatus configured to drive the cable , characterised in that the coupling apparatus comprises a cable buffering system configured to reduce an attachment speed of one or more selected positions along the cable when adjacent to the coupling apparatus for attachment of the one or more nodes , without changing a deployment speed at which the cable is deployed to the water column .
A generator comprising: a power amplifier configured to produce a power signal comprising a periodic repeating pattern of values comprising multi-dimensional output values , the pattern of values produced over a period of time comprising a repetition period of the power signal; and a control element configured to control the power amplifier to produce the periodic repeating pattern based on: a multi-dimensional input ; a measurement of a value of the periodic repeating pattern taken a repetition period of the power signal prior to a current period of the power signal; and a plurality of correlations between elements of multi-dimensional control input values and elements of the multi-dimensional output values . a power amplifier configured to produce a power signal comprising a periodic repeating pattern of values comprising multi-dimensional output values , the pattern of values produced over a period of time comprising a repetition period of the power signal; and a control element configured to control the power amplifier to produce the periodic repeating pattern based on: a multi-dimensional input ; a measurement of a value of the periodic repeating pattern taken a repetition period of the power signal prior to a current period of the power signal; and a plurality of correlations between elements of multi-dimensional control input values and elements of the multi-dimensional output values . a multi-dimensional input ; a measurement of a value of the periodic repeating pattern taken a repetition period of the power signal prior to a current period of the power signal; and a plurality of correlations between elements of multi-dimensional control input values and elements of the multi-dimensional output values .
An apparatus, comprising: a first arm configured to accept a transcranial magnetic stimulation device , the first arm comprising a first counterweight arrangement ; a second arm supporting the first arm by a coupling , characterized by a base defining and being formed in a shape of a non-straight curve and having the second arm mounted thereon at an attachment point, wherein the attachment point is movable along the non-straight curve to enable positioning the transcranial magnetic stimulation device to different sides of a head, the base configured to be mounted on a chair . a first arm configured to accept a transcranial magnetic stimulation device , the first arm comprising a first counterweight arrangement ; a second arm supporting the first arm by a coupling , characterized by a base defining and being formed in a shape of a non-straight curve and having the second arm mounted thereon at an attachment point, wherein the attachment point is movable along the non-straight curve to enable positioning the transcranial magnetic stimulation device to different sides of a head, the base configured to be mounted on a chair .
A molded article for providing a container , the molded article comprising: a body configurable to define a storage vessel of the container ; wherein the body includes: at least one layer of a first thermoplastic ; and a printing layer that includes a second thermoplastic , the printing layer being photo-sensitive to laser light of selected properties to change a visual appearance thereof, whereby the container may be printed upon. a body configurable to define a storage vessel of the container ; wherein the body includes: at least one layer of a first thermoplastic ; and a printing layer that includes a second thermoplastic , the printing layer being photo-sensitive to laser light of selected properties to change a visual appearance thereof, whereby the container may be printed upon. at least one layer of a first thermoplastic ; and a printing layer that includes a second thermoplastic , the printing layer being photo-sensitive to laser light of selected properties to change a visual appearance thereof, whereby the container may be printed upon.
A method comprising: splitting pictures of a source picture sequence into a plurality of tile rectangles along a grid, wherein a tile rectangle is a rectangular area in a picture; forming a corresponding number of tile rectangle sequences, wherein each tile rectangle sequence corresponds to a certain position in the grid; encoding each tile rectangle sequence independently into one or more versions of a corresponding number of coded tile rectangle sequences with different characteristics so as to be used for viewport-dependent delivery, wherein the characteristics comprise picture quality; and merging two or more coded tile rectangles from different coded tile rectangle sequences vertically at each time instance into a coded picture such that each coded tile rectangle forms a coded slice in the coded picture so as to provide a better picture quality for a viewport than for a remaining area of the source picture, wherein a viewport represents a portion of the decoded picture rendered on a display resulting by decoding the coded picture. splitting pictures of a source picture sequence into a plurality of tile rectangles along a grid, wherein a tile rectangle is a rectangular area in a picture; forming a corresponding number of tile rectangle sequences, wherein each tile rectangle sequence corresponds to a certain position in the grid; encoding each tile rectangle sequence independently into one or more versions of a corresponding number of coded tile rectangle sequences with different characteristics so as to be used for viewport-dependent delivery, wherein the characteristics comprise picture quality; and merging two or more coded tile rectangles from different coded tile rectangle sequences vertically at each time instance into a coded picture such that each coded tile rectangle forms a coded slice in the coded picture so as to provide a better picture quality for a viewport than for a remaining area of the source picture, wherein a viewport represents a portion of the decoded picture rendered on a display resulting by decoding the coded picture.
A blood separation device comprising: a centrifugal separator configured for mounting a centrifugal separation chamber thereon; a spinning membrane separator drive unit configured for mounting a spinning membrane separator thereon; first and second pumps (P5, P4); and a controller configured and/or programmed to control the centrifugal separator to separate blood into two or more blood components, control the first pump (P5) to recirculate a portion of one of the blood components into the centrifugal separation chamber with blood entering the centrifugal separation chamber , and control the second pump (P4) to convey another portion of said one of the blood components into the spinning membrane separator to separate said another portion of said one of the blood components into two or more subcomponents, wherein the centrifugal separator and the spinning membrane separator drive unit are incorporated into a case . a centrifugal separator configured for mounting a centrifugal separation chamber thereon; a spinning membrane separator drive unit configured for mounting a spinning membrane separator thereon; first and second pumps (P5, P4); and a controller configured and/or programmed to control the centrifugal separator to separate blood into two or more blood components, control the first pump (P5) to recirculate a portion of one of the blood components into the centrifugal separation chamber with blood entering the centrifugal separation chamber , and control the second pump (P4) to convey another portion of said one of the blood components into the spinning membrane separator to separate said another portion of said one of the blood components into two or more subcomponents, wherein the centrifugal separator and the spinning membrane separator drive unit are incorporated into a case . control the centrifugal separator to separate blood into two or more blood components, control the first pump (P5) to recirculate a portion of one of the blood components into the centrifugal separation chamber with blood entering the centrifugal separation chamber , and control the second pump (P4) to convey another portion of said one of the blood components into the spinning membrane separator to separate said another portion of said one of the blood components into two or more subcomponents, wherein the centrifugal separator and the spinning membrane separator drive unit are incorporated into a case .