mhurhangee/patent-ind-claim-en huggingface dataset:
Process for the recovery of fluorine-containing inhalation anaesthetics, wherein in a desorption step an adsorbent comprising fluorine-containing inhalation anaesthetics is flowed through by water vapour, resulting in a secondary volume flow comprising fluorine-containing inhalation anaesthetics, and wherein the secondary volume flow is converted by cooling into a condensate containing fluorine-containing inhalation anaesthetics and water, from which the fluorine-containing inhalation anaesthetics are separated, characterised in that in a sterilisation step preceding the desorption step, the adsorbent comprising adsorbed fluorine-containing inhalation anaesthetics is brought into contact with water vapour - for 10 to 60 min, - at a temperature from 121 to 150°C, and - at a pressure of from 0.15 MPa to 0.4 MPa, in particular from 0.15 to 0.3 MPa, - wherein the sterilisation step and the desorption step are carried out in direct sequence in the same installation, - wherein the sterilisation step and the desorption step are carried out in a desorption vessel , - and wherein the desorption vessel comprises a steam inlet and a steam outlet , and the adsorbent is positioned between the steam inlet and the steam outlet in the desorption vessel such that steam entering the desorption vessel through the steam inlet must pass through the adsorbent before leaving the desorption vessel through the steam outlet , - and wherein the desorption vessel comprises a valve connected downstream of the steam outlet , the valve being closed during the sterilisation step and open during the desorption step, - and wherein the temperature prevailing in the desorption vessel is measured by a temperature sensor , and wherein the temperature sensor is located below an adsorbent container placed in the desorption vessel , and wherein the adsorbent comprising the adsorbed fluorine-containing inhalation anaesthetics has been obtained by filtering breathing air from the treatment of patients. - for 10 to 60 min, - at a temperature from 121 to 150°C, and - at a pressure of from 0.15 MPa to 0.4 MPa, in particular from 0.15 to 0.3 MPa, - wherein the sterilisation step and the desorption step are carried out in direct sequence in the same installation, - wherein the sterilisation step and the desorption step are carried out in a desorption vessel , - and wherein the desorption vessel comprises a steam inlet and a steam outlet , and the adsorbent is positioned between the steam inlet and the steam outlet in the desorption vessel such that steam entering the desorption vessel through the steam inlet must pass through the adsorbent before leaving the desorption vessel through the steam outlet , - and wherein the desorption vessel comprises a valve connected downstream of the steam outlet , the valve being closed during the sterilisation step and open during the desorption step, - and wherein the temperature prevailing in the desorption vessel is measured by a temperature sensor , and wherein the temperature sensor is located below an adsorbent container placed in the desorption vessel , and
A method performed by a processor, the method comprising: selecting a first channel identifier, ID, to identify a single bidirectional logical channel corresponding to a bidirectional sidelink radio bearer, SLRB; initiating a setup procedure to establish the bidirectional SLRB between a device and a peer device, using the first channel ID; the method is characterised by starting a timer in response to failing to establish the bidirectional SLRB with the peer device; and re-initiating the setup procedure upon expiration of the timer to establish the bidirectional SLRB between the device and the peer device. selecting a first channel identifier, ID, to identify a single bidirectional logical channel corresponding to a bidirectional sidelink radio bearer, SLRB; initiating a setup procedure to establish the bidirectional SLRB between a device and a peer device, using the first channel ID; the method is characterised by starting a timer in response to failing to establish the bidirectional SLRB with the peer device; and re-initiating the setup procedure upon expiration of the timer to establish the bidirectional SLRB between the device and the peer device.
Transport container containing 8 to 14 flat film bags or 8 to 12 flat double film bags, each filled with silicon chunks, wherein the flat film bags each have a packing density of 0.88 to 1.62 kg/dm 3 and the flat double film bags each have a packing density of 0.68 to 1.15 kg/dm 3 , and wherein the transport container containing flat film bags has a packing density of 0.81 to 1.23 kg/dm 3 and the transport container containing flat double film bags has a packing density of 0.65 to 1.06 kg/dm 3 , with the proviso that the packing density of the flat film bag or flat double film bag is greater than or equal to the packing density of the transport container, wherein the silicon chunks belong at least to one of the chunk size classes 0, 1, 2, 3 or 4, characterized in that the transport container has a length L which corresponds to the sum of a length l and a width b of a flat bag, and has a width B which corresponds to the twofold width 2b , wherein 2b must correspond at least to l , and wherein at least 2 and not more than 4 of the flat bags form a layer N in the transport container, wherein - for a layer of 2 flat bags 2N, the bags are arranged next to one another longitudinally or transversely, - for a layer of 3 flat bags 3N, the bags are arranged next to one another, with 2 of the bags arranged longitudinally and one transversely, - for a layer of 4 flat bags 4N, each 2 bags are arranged longitudinally next to one another, with the 2 bags each arranged in a longitudinal direction preferably overlapping. - for a layer of 2 flat bags 2N, the bags are arranged next to one another longitudinally or transversely, - for a layer of 3 flat bags 3N, the bags are arranged next to one another, with 2 of the bags arranged longitudinally and one transversely, - for a layer of 4 flat bags 4N, each 2 bags are arranged longitudinally next to one another, with the 2 bags each arranged in a longitudinal direction preferably overlapping.
Natural gas liquefaction process in combination with a synthesis gas production process, the liquefaction process comprising the following stages: - stage a): pretreatment of a feed natural gas in order to remove the impurities liable to freeze during the liquefaction process by means of a pretreatment system using a regeneration stream; - stage b): extraction, from the gas stream resulting from stage a), of a stream enriched in hydrocarbons having more than two carbon atoms and of a stream depleted in hydrocarbons having more than two carbon atoms; - stage c) : liquefaction of the gas stream depleted in hydrocarbons having more than two carbon atoms resulting from stage b); the synthesis gas production process comprising the following stages: - stage a'): desulfurization at a temperature of greater than 350°C of a natural gas feed stream; - stage b'): optional prereforming, at a temperature of greater than 500°C, in order to convert the hydrocarbon chains containing at least two carbon atoms of the gas stream resulting from stage a') into methane; - stage c'): reforming consisting in reacting, at a temperature of greater than 800°C, the gas stream resulting from stage a') or b') with steam in order to produce hydrogen, carbon dioxide and carbon monoxide; characterized in that at least a portion of the heat source required for the synthesis gas production process is produced by at least a portion of the regeneration stream used during stage a), the heat energy of the regeneration stream used during stage a) representing from 5% to 35%, preferably from 10% to 20%, of the amount of fuel of the heat source required for the synthesis gas production process. - stage a): pretreatment of a feed natural gas in order to remove the impurities liable to freeze during the liquefaction process by means of a pretreatment system using a regeneration stream; - stage b): extraction, from the gas stream resulting from stage a), of a stream enriched in hydrocarbons having more than two carbon atoms and of a stream depleted in hydrocarbons having more than two carbon atoms; - stage c) : liquefaction of the gas stream depleted in hydrocarbons having more than two carbon atoms resulting from stage b); - stage a'): desulfurization at a temperature of greater than 350°C of a natural gas feed stream; - stage b'): optional prereforming, at a temperature of greater than 500°C, in order to convert the hydrocarbon chains containing at least two carbon atoms of the gas stream resulting from stage a') into methane; - stage c'): reforming consisting in reacting, at a temperature of greater than 800°C, the gas stream resulting from stage a') or b') with steam in order to produce hydrogen, carbon dioxide and carbon monoxide;
A computer-implemented method for determining mass fractions of one or more elements in a test sample based on a measurement with a wave-length dispersive x-ray fluorescence spectrometer, referred to as WDX spectrometer , comprising: receiving , from a detector of the WDX spectrometer, one or more gross intensities associated with respective one or more elements with corresponding one or more to-be-determined mass fractions (MFi) in the test sample ; and said method being characterized by comprising the steps of: determining each of the one or more to-be-determined mass fractions (MFi) by using a calibration equation (CE1) with the respective measured gross intensity and a respective calculated scattering efficiency as inputs, wherein the calculated scattering efficiency is defined as the ratio between incoming intensity and scattered intensity for a particular elemental composition and energy, the calibration equation (CE1) associating net intensities of characteristic fluorescence emission lines of the sample elements with respective mass fractions, wherein the net intensity for a particular peak is obtained by subtracting the respective calculated scattering efficiency times a scaling factor from the calibration equation (CE1) from the measured gross intensity of the particular peak, with the particular elemental composition of the test sample being estimated by either: iteratively determining mass fraction estimates for the particular elemental composition based on the measured gross intensities associated with elements in the test sample; or: obtaining mass fraction estimates for the particular elemental composition from a quantification using an Energy Dispersive X-Ray detector, referred to as EDX detector .
A method for radio data transmission in a radio communication system including a radio terminal apparatus and a radio base station apparatus , the method comprising: transmitting simultaneously, by the radio base station apparatus , a signal indicating a pattern for random access and data to be decoded by an asynchronous radio terminal apparatus not synchronized with the radio base station apparatus on an uplink to the asynchronous radio terminal apparatus if an event occurs where the radio base station apparatus transmits the data to the asynchronous radio terminal apparatus ; and transmitting, by the asynchronous radio terminal apparatus to the radio base station apparatus via a random access channel, a reply signal generated by modulating the pattern indicated by the signal for random access based on whether or not the data has been correctly decoded, the reply signal including a first modulated pattern if the data has been correctly decoded and a second modulated pattern, different to the first modulated pattern, if the data has not been correctly decoded. transmitting simultaneously, by the radio base station apparatus , a signal indicating a pattern for random access and data to be decoded by an asynchronous radio terminal apparatus not synchronized with the radio base station apparatus on an uplink to the asynchronous radio terminal apparatus if an event occurs where the radio base station apparatus transmits the data to the asynchronous radio terminal apparatus ; and transmitting, by the asynchronous radio terminal apparatus to the radio base station apparatus via a random access channel, a reply signal generated by modulating the pattern indicated by the signal for random access based on whether or not the data has been correctly decoded, the reply signal including a first modulated pattern if the data has been correctly decoded and a second modulated pattern, different to the first modulated pattern, if the data has not been correctly decoded.
A device for decrypting encrypted media content, the device comprising a processing environment configured to: receive and store an encrypted content key for decrypting encrypted media content; evaluate an access condition and, if the access condition is met, decrypt the content key and enable a descrambler to use the content key to decrypt the encrypted media content; receive the encrypted media content and decrypt the encrypted media content using the content key; and re-evaluate within an interval whether use of the content key should remain enabled, characterized in that the processing environment is further configured to: if the re-evaluation is negative, prevent the descrambler from using the content key after the interval has passed in response to the re-evaluation even though the content key remains valid, and in that the access condition comprises a condition that a token indicating that access is authorised has been received before expiry of the interval. receive and store an encrypted content key for decrypting encrypted media content; evaluate an access condition and, if the access condition is met, decrypt the content key and enable a descrambler to use the content key to decrypt the encrypted media content; receive the encrypted media content and decrypt the encrypted media content using the content key; and re-evaluate within an interval whether use of the content key should remain enabled, characterized in that the processing environment is further configured to: if the re-evaluation is negative, prevent the descrambler from using the content key after the interval has passed in response to the re-evaluation even though the content key remains valid, and in that the access condition comprises a condition that a token indicating that access is authorised has been received before expiry of the interval.
A catheter comprising: a tube having a distal end; a balloon secured to the distal end; a push wire that causes said balloon to evert from the distal end; and an actuator for said push wire; characterized in that the balloon is configured such that upon deflation a series of wrinkles form on the surface of said balloon to create multiple edges for collection of cells. a tube having a distal end; a balloon secured to the distal end; a push wire that causes said balloon to evert from the distal end; and an actuator for said push wire; characterized in that the balloon is configured such that upon deflation a series of wrinkles form on the surface of said balloon to create multiple edges for collection of cells.
A device for delivery of a composition to an airway of a subject, the device comprising: in fluid communication: a gas inlet ; a gas outlet ; a composition receptacle in which a composition capsule containing the composition is received; and a dispersion chamber ; one or more primers each comprising a pin or blade ; and a cap configured to be located over the gas outlet , wherein each primer comprises a cam follower that is activated by a cam on the cap to move the pin or blade to pierce or cut the composition capsule to release the composition upon removal of the cap , and wherein the composition capsule is held in place for piercing or cutting by the one or more primers between a capsule seat formed in a base of the device and one or more elongate members which extend from a cap top of the cap . in fluid communication: a gas inlet ; a gas outlet ; a composition receptacle in which a composition capsule containing the composition is received; and a dispersion chamber ; one or more primers each comprising a pin or blade ; and a gas inlet ; a gas outlet ; a composition receptacle in which a composition capsule containing the composition is received; and a dispersion chamber ; one or more primers each comprising a pin or blade ; and a cap configured to be located over the gas outlet , wherein each primer comprises a cam follower that is activated by a cam on the cap to move the pin or blade to pierce or cut the composition capsule to release the composition upon removal of the cap , and wherein the composition capsule is held in place for piercing or cutting by the one or more primers between a capsule seat formed in a base of the device and one or more elongate members which extend from a cap top of the cap . wherein each primer comprises a cam follower that is activated by a cam on the cap to move the pin or blade to pierce or cut the composition capsule to release the composition upon removal of the cap , and wherein the composition capsule is held in place for piercing or cutting by the one or more primers between a capsule seat formed in a base of the device and one or more elongate members which extend from a cap top of the cap .
A developer supply container detachably mountable to a developer receiving apparatus , said developer receiving apparatus including a developer receiving portion provided with a receiving port for receiving a developer and including a portion-to-be-engaged capable of being displaced integrally with said developer receiving portion , said developer supply container comprising: a rotatable developer accommodating portion for accommodating the developer; a developer discharging portion which is rotatable relative to said developer accommodating portion and which is provided at a bottom side thereof with a discharge opening for discharging the developer accommodated in said developer accommodating portion ; and an engaging portion provided only on one side of said developer discharging portion as seen in a direction (A) in which said developer supply container is inserted into the developer receiving apparatus , said engaging portion is engageable with the portion-to-be-engaged with a mounting operation of said developer supply container to displace the developer receiving portion to move said developer receiving portion toward said discharge opening , thereby to bring the receiving port into fluid communication with said discharge opening , characterized in that the bottom side of said developer discharging portion has an inclined surface around the discharge opening , said inclined surface being inclined such that a portion of a side not provided with said engaging portion is lower than said discharge opening , as seen in the direction (A) in which said developer supply container is inserted into the developer receiving apparatus . a rotatable developer accommodating portion for accommodating the developer; a developer discharging portion which is rotatable relative to said developer accommodating portion and which is provided at a bottom side thereof with a discharge opening for discharging the developer accommodated in said developer accommodating portion ; and an engaging portion provided only on one side of said developer discharging portion as seen in a direction (A) in which said developer supply container is inserted into the developer receiving apparatus , said engaging portion is engageable with the portion-to-be-engaged with a mounting operation of said developer supply container to displace the developer receiving portion to move said developer receiving portion toward said discharge opening , thereby to bring the receiving port into fluid communication with said discharge opening , characterized in that the bottom side of said developer discharging portion has an inclined surface around the discharge opening , said inclined surface being inclined such that a portion of a side not provided with said engaging portion is lower than said discharge opening , as seen in the direction (A) in which said developer supply container is inserted into the developer receiving apparatus .
An axial flow turbine diaphragm construction comprising: a) an annulus of a plurality of identical static blades , each blade comprising: i) an aerofoil portion having a leading edge , a trailing edge , a pressure side and a suction side, ii) inner and outer ends of each static blade are provided respectively with an inner and outer reinforcement portion integral with said aerofoil portion , characterized in that a shape of the reinforcement portions approximates a shape of a section of the aerofoil portion in its whole, i.e. at and near the leading and trailing edges as well as the suction side and the pressure side of the aerofoil portion , and wherein each reinforcement portion surrounds the periphery of the whole section of the corresponding end so as to have a section bigger than the section of the aerofoil portion ; b) an inner and outer spacer bands having through-holes therein shaped to receive the inner and outer reinforcement portions of each static blade ; and c) a radially inner and outer diaphragm rings surrounding the annular spacer bands . a) an annulus of a plurality of identical static blades , each blade comprising: i) an aerofoil portion having a leading edge , a trailing edge , a pressure side and a suction side, ii) inner and outer ends of each static blade are provided respectively with an inner and outer reinforcement portion integral with said aerofoil portion , characterized in that a shape of the reinforcement portions approximates a shape of a section of the aerofoil portion in its whole, i.e. at and near the leading and trailing edges as well as the suction side and the pressure side of the aerofoil portion , and wherein each reinforcement portion surrounds the periphery of the whole section of the corresponding end so as to have a section bigger than the section of the aerofoil portion ; i) an aerofoil portion having a leading edge , a trailing edge , a pressure side and a suction side, ii) inner and outer ends of each static blade are provided respectively with an inner and outer reinforcement portion integral with said aerofoil portion , a shape of the reinforcement portions approximates a shape of a section of the aerofoil portion in its whole, i.e. at and near the leading and trailing edges as well as the suction side and the pressure side of the aerofoil portion , and wherein each reinforcement portion surrounds the periphery of the whole section of the corresponding end so as to have a section bigger than the section of the aerofoil portion ; b) an inner and outer spacer bands having through-holes therein shaped to receive the inner and outer reinforcement portions of each static blade ; and c) a radially inner and outer diaphragm rings surrounding the annular spacer bands .