mhurhangee/patent-ind-claim-en huggingface dataset:
A system for curing or flavouring foodstuff comprising - a smoker unit capable of generating smoke (S), wherein the smoker unit comprises a heating chamber ; and - a household appliance , particularly an oven, comprising a cavity for storing foodstuff and/or a food container , the cavity having an outlet opening for supplying the smoke (S) to the cavity , wherein the smoker unit is mounted to said household appliance for supplying smoke (S) to said outlet opening ; and wherein the system further comprises an electric fan arranged for supplying the smoke (S) generated by the smoker unit to the outlet opening , characterised in that the system comprises a food container and a hose , wherein a first end of said hose is connected to the outlet opening and a second end of said hose is connected to the food container , and wherein the food container comprises a cooking vessel and a lid, and wherein the lid is sealing the cooking vessel in an essentially airtight manner, and wherein the food container , preferably the lid, comprises an adapter configured to be connected to the second end of the hose . - a smoker unit capable of generating smoke (S), wherein the smoker unit comprises a heating chamber ; and - a household appliance , particularly an oven, comprising a cavity for storing foodstuff and/or a food container , the cavity having an outlet opening for supplying the smoke (S) to the cavity , wherein the smoker unit is mounted to said household appliance for supplying smoke (S) to said outlet opening ; and wherein the system further comprises an electric fan arranged for supplying the smoke (S) generated by the smoker unit to the outlet opening ,
A filter assembly (300;500;700;800) for an enclosure , comprising: an enclosure side and an outer side (302;502) opposite from the enclosure side; a first layer (320;520;720;820) which is gas permeable positioned at the outer side of the filter assembly; and an adsorbent layer (310;510;710;810), wherein the_adsorbent layer comprises adsorbent particles and a scrim material holding the adsorbent particles in place, wherein said first layer (320;520;720;820) is positioned on an outer face of said adsorbent layer; and wherein the enclosure side of the filter assembly comprises: an adhesive zone (350;550;750;850) in which adhesive is present having an outer adhesive perimeter and an inner adhesive perimeter that defines an exit window portion that is completely surrounded by the adhesive zone (350;550;750,850); a weld area (360;560;760;860) completely surrounding the adhesive zone (350;550;750;850), where the first layer (320;520;720;820) of the filter assembly (300;500;700;800) is heat-sealable to a material comprising plastic at the weld area (360;560;760;860); wherein the adsorbent layer (310;510;710;810) comprises the adsorbent particles dispersed in a fine fiber web. an enclosure side and an outer side (302;502) opposite from the enclosure side; a first layer (320;520;720;820) which is gas permeable positioned at the outer side of the filter assembly; and an adsorbent layer (310;510;710;810), wherein the_adsorbent layer comprises adsorbent particles and a scrim material holding the adsorbent particles in place, wherein said first layer (320;520;720;820) is positioned on an outer face of said adsorbent layer; and wherein the enclosure side of the filter assembly comprises: an adhesive zone (350;550;750;850) in which adhesive is present having an outer adhesive perimeter and an inner adhesive perimeter that defines an exit window portion that is completely surrounded by the adhesive zone (350;550;750,850); a weld area (360;560;760;860) completely surrounding the adhesive zone (350;550;750;850), where the first layer (320;520;720;820) of the filter assembly (300;500;700;800) is heat-sealable to a material comprising plastic at the weld area (360;560;760;860); wherein the adsorbent layer (310;510;710;810) comprises the adsorbent particles dispersed in a fine fiber web. an adhesive zone (350;550;750;850) in which adhesive is present having an outer adhesive perimeter and an inner adhesive perimeter that defines an exit window portion that is completely surrounded by the adhesive zone (350;550;750,850); a weld area (360;560;760;860) completely surrounding the adhesive zone (350;550;750;850), where the first layer (320;520;720;820) of the filter assembly (300;500;700;800) is heat-sealable to a material comprising plastic at the weld area (360;560;760;860); wherein the adsorbent layer (310;510;710;810) comprises the adsorbent particles dispersed in a fine fiber web.
A system for delivering microporation medical treatments to improve biomechanics, the system comprising: a laser for generating a beam of laser radiation on a treatment-axis not aligned with a patient's visual-axis, operable for use in subsurface ablative medical treatments to create an array pattern of micropores that improves biomechanics; a housing; a controller within the housing, in communication with the laser and operable to control dosimetry of the beam of laser radiation in application to a target tissue; a lens operable to focus the beam of laser radiation onto a target tissue; an automated off-axis subsurface anatomy tracking, measuring and avoidance system; and wherein the array pattern of micropores is at least one of a radial pattern, a spiral pattern, a phyllotactic pattern, or an asymmetric pattern, characterised in that the array pattern of micropores has a controlled asymmetry which is an at least partial rotational asymmetry about the center of the array pattern and extends to at least 51 percent of the micropores of the array pattern. a laser for generating a beam of laser radiation on a treatment-axis not aligned with a patient's visual-axis, operable for use in subsurface ablative medical treatments to create an array pattern of micropores that improves biomechanics; a housing; a controller within the housing, in communication with the laser and operable to control dosimetry of the beam of laser radiation in application to a target tissue; a lens operable to focus the beam of laser radiation onto a target tissue; an automated off-axis subsurface anatomy tracking, measuring and avoidance system; and wherein the array pattern of micropores is at least one of a radial pattern, a spiral pattern, a phyllotactic pattern, or an asymmetric pattern, characterised in that the array pattern of micropores has a controlled asymmetry which is an at least partial rotational asymmetry about the center of the array pattern and extends to at least 51 percent of the micropores of the array pattern.
A photoelectric conversion device comprising a negative electrode , a positive electrode , a photoelectric conversion layer provided between said negative electrode and said positive electrode , and a graphene-containing membrane provided between said negative electrode and said photoelectric conversion layer ; characterized in that said graphene-containing membrane contains graphene in which polyalkyleneimine chains are connected to the graphene skeleton and has a ratio of the photoelectron intensity at the energy peak position of C1s orbital to that at the bonding energy on an X-ray photoelectron spectrum measured on an ITO film of 288 eV in a range of 5.5 to 20.
Method for monitoring a state variable of at least one battery cell of a battery , wherein changing the state variable has an effect on the geometry of the battery cell or the battery , wherein the battery has at least two battery cells that are arranged adjacent to one another, with the following steps: - providing a first electrically conductive surface at a boundary surface of a first of the at least two battery cells and providing a second electrically conductive surface at a boundary surface of a second of the at least two battery cells , wherein the electrically conductive surfaces are arranged to be electrically insulated from each other for the capacitive determination of the change of geometry, - applying an electrical voltage between the two electrically conductive surfaces , - analysing an electrical variable produced due to an effect of the electrical voltage and - determining the state variable on the basis of the analysis. - providing a first electrically conductive surface at a boundary surface of a first of the at least two battery cells and providing a second electrically conductive surface at a boundary surface of a second of the at least two battery cells , wherein the electrically conductive surfaces are arranged to be electrically insulated from each other for the capacitive determination of the change of geometry, - applying an electrical voltage between the two electrically conductive surfaces , - analysing an electrical variable produced due to an effect of the electrical voltage and - determining the state variable on the basis of the analysis.
A bracket for clamping an injector onto a cylinder head of an internal combustion engine, comprising: - a clamp section , arranged for providing a clamping force (Fc) onto the injector to clamp the injector onto the cylinder head ; - a mount section , extending from the clamp section and arranged for mounting the bracket to the cylinder head adjacent the injector ; and - a support section , extending from the mount section opposite the clamp section and arranged for supporting the bracket onto the cylinder head at a lever distance from the clamp section , to define the clamping force (Fc); characterized in that the support section comprises a plurality of support elements (135a,b,c), each of said support elements arranged at a different lever distance (L A,B,C ), such that a selected support element from the plurality of support elements (135a,b,c) engages, in use, with the cylinder head at a selected lever distance, such that the bracket is supported on the selected support element only, to control a magnitude of the clamping force (Fc). - a clamp section , arranged for providing a clamping force (Fc) onto the injector to clamp the injector onto the cylinder head ; - a mount section , extending from the clamp section and arranged for mounting the bracket to the cylinder head adjacent the injector ; and - a support section , extending from the mount section opposite the clamp section and arranged for supporting the bracket onto the cylinder head at a lever distance from the clamp section , to define the clamping force (Fc); characterized in that the support section comprises a plurality of support elements (135a,b,c), each of said support elements arranged at a different lever distance (L A,B,C ), such that a selected support element from the plurality of support elements (135a,b,c) engages, in use, with the cylinder head at a selected lever distance, such that the bracket is supported on the selected support element only, to control a magnitude of the clamping force (Fc).
A method for wireless communications, comprising: establishing , by a user equipment, UE, a first connection with a first serving node using a wireless wide area network, WWAN, radio access technology, RAT; establishing , by the UE, a second connection with a second serving node using a wireless local area network, WLAN, RAT, wherein the first connection and the second connection are configured for traffic aggregation at a network layer; receiving , by the UE, an indication of a power consumption mode for the first connection wherein the power consumption mode relates to the WWAN RAT; determining, from the indication, the power consumption mode for the first connection; and switching , by the UE and based at least in part on the determining a power operation mode of the second connection to cause the second serving node to transmit, to the UE and over the second connection, one or more data units buffered at the network layer, wherein switching the power operation mode comprises transmitting, to the second serving node and over the second connection, at least one of a power save poll of the WLAN RAT or an uplink data unit using the WLAN RAT. establishing , by a user equipment, UE, a first connection with a first serving node using a wireless wide area network, WWAN, radio access technology, RAT; establishing , by the UE, a second connection with a second serving node using a wireless local area network, WLAN, RAT, wherein the first connection and the second connection are configured for traffic aggregation at a network layer; receiving , by the UE, an indication of a power consumption mode for the first connection wherein the power consumption mode relates to the WWAN RAT; determining, from the indication, the power consumption mode for the first connection; and switching , by the UE and based at least in part on the determining a power operation mode of the second connection to cause the second serving node to transmit, to the UE and over the second connection, one or more data units buffered at the network layer, wherein switching the power operation mode comprises transmitting, to the second serving node and over the second connection, at least one of a power save poll of the WLAN RAT or an uplink data unit using the WLAN RAT. receiving , by the UE, an indication of a power consumption mode for the first connection wherein the power consumption mode relates to the WWAN RAT; determining, from the indication, the power consumption mode for the first connection; and switching , by the UE and based at least in part on the determining a power operation mode of the second connection to cause the second serving node to transmit, to the UE and over the second connection, one or more data units buffered at the network layer, wherein switching the power operation mode comprises transmitting, to the second serving node and over the second connection, at least one of a power save poll of the WLAN RAT or an uplink data unit using the WLAN RAT.
A terminal device communicating with an Evolved Universal Terrestrial Radio Access Network, EUTRAN, the terminal device comprising a reception unit that is adapted to receive a PBCH, a PDCCH, and a PDSCH in a downlink in a serving cell, a PBCH, and a PDSCH in the downlink in a non-serving cell other than the serving cell, and a physical channel in a link between terminal devices in the non-serving cell; and a decoding unit that is adapted to decode the PDSCH in the downlink of the non-serving cell in a case that the terminal device is configured to perform transmission and reception in the link between the terminal devices in the non-serving cell, wherein the PDSCH in the downlink of the non-serving cell carries a system information block 18 indicating a pool of D2D resources reserved in the non-serving cell, and a part of the D2D resources is used for the transmission in the link in the non-serving cell.
A scraped surface heat exchanger comprising a heat exchange surface, a rotatable shaft, said shaft having at least one mounting means, and a sweeping element wherein said sweeping element comprises a blade having at least one aperture for engaging with the mounting means such that the sweeping element is connected to the mounting means and wherein when the rotatable shaft is rotating relative to the heat exchange surface the sweeping element has substantially no movement relative to the rotating shaft and said sweeping element has substantially no contact with the inner surface of the heat exchanger, and the mounting means comprises at least one engagement means, wherein the engagement means comprises a projection extending outwardly at a substantially right angle to the rotatable shaft for engagement with the sweeping element so as to engage the sweeping element such that the sweeping element is connected to the mounting means, wherein the projection is a substantially T-shaped element extending outwardly at a substantially right angle to the rotatable shaft for engagement with the sweeping element and characterised in that the blade has a leading edge with a distance of 0.05 mm to 10 mm from the inner surface of the heat exchange and the blade has a plurality of substantially T-shaped apertures longitudinally arranged through the blade body for engaging with the mounting means.
A transdermal drug delivering device comprising: - a first top , - an annular outer wall and an annular inner wall arranged on the two sides of the first top and fixedly connected with one side of the first top , and constitute a first annular cavity together with the first top , - a first connecting tube , wherein one end of the first connecting tube is communicated with the first annular cavity , and the other end is adapted to be communicated with a negative pressure source, - a central annular cavity for placing drug, characterized in that - the central annular cavity comprises a first annular wall and a second top , and the first annular wall is connected with one end of the annular inner wall through an annular bottom , - the annular inner wall , the annular bottom and the first annular wall form a first annular groove opening towards the direction of the first top , characterised in that , the first annular groove separates the first top from the second top , and adapts in use to the changing of curvature by opening and closing of the top thereof and therefore avoiding the first annular cavity is controlled by the second top . - a first top , - an annular outer wall and an annular inner wall arranged on the two sides of the first top and fixedly connected with one side of the first top , and constitute a first annular cavity together with the first top , - a first connecting tube , wherein one end of the first connecting tube is communicated with the first annular cavity , and the other end is adapted to be communicated with a negative pressure source, - a central annular cavity for placing drug, characterized in that - the central annular cavity comprises a first annular wall and a second top , and the first annular wall is connected with one end of the annular inner wall through an annular bottom , - the annular inner wall , the annular bottom and the first annular wall form a first annular groove opening towards the direction of the first top ,
A method of injecting a compressed "comonomer/compound mixture," comprising a "comonomer comprising a carboxylic acid," and at least one compound, into at least one reactor; said method comprising, adding the at least one compound to the comonomer to form the "comonomer/compound mixture," prior to compressing and injecting the mixture into the reactor; and wherein the crystallization temperature, at pressure P, of the "comonomer/compound mixture" is at least 5°C lower than the crystallization temperature, at pressure P, of the comonomer, without the presence of the at least one compound; and wherein the pressure P is greater than 500 bar; and wherein the molar ratio of the at least one compound to the comonomer in the mixture is from 1/10 to 1/1; and wherein the comonomer/compound mixture comprises greater than, or equal to, 30 weight percent of the comonomer, based on the weight of the comonomer/compound mixture; wherein the melting temperature, at atmospheric pressure, of the at least one compound is less than the melting temperature, at atmospheric pressure, of the comonomer; wherein the at least one compound has a boiling temperature, at atmospheric pressure, of less than, or equal to, 110°C; wherein the "comonomer comprising a carboxylic acid" is an unsaturated organic compound comprising at least one - COOH group; wherein the comonomer contains from 3 to 8 carbon atoms; and wherein the at least one compound is an alkyl acrylate, an alkyl methacrylate, or a vinyl acetate.
A method of controlling an electrical taxiing system comprising an actuator comprising an electric motor for moving an aircraft while the aircraft is taxiing, the method comprising the steps of: • defining a target value (Ld_nmax) for an electrical parameter representative of the electricity consumption of a set of electrical systems powered by a common electrical power supply and including the electrical taxiing system; • generating a nominal force command (Cmd_nom) for the electrical taxiing system; the method being characterized in that it comprises the steps of : • in parallel with generating the nominal force command (Cmd_nom), using a processing system to produce a maximum command force (Force_max) for the electrical taxiing system so that a real value of the electrical parameter reaches the target value (Ld_nmax), the processing system comprising a regulator loop having a setpoint (Ld_set) defined from the target value (Ld_nmax) and having a command (Cmd_ld) from which the maximum command force (Force_max) is defined; and • generating an optimized force command (Cmd_opt) for the electrical taxiing system equal to the smaller of the nominal force command and the maximum command force, • transforming the optimized force command (Cmd_opt) into an actual force command (Cmd_act) that is used for controlling the electric motor. • defining a target value (Ld_nmax) for an electrical parameter representative of the electricity consumption of a set of electrical systems powered by a common electrical power supply and including the electrical taxiing system; • generating a nominal force command (Cmd_nom) for the electrical taxiing system; • in parallel with generating the nominal force command (Cmd_nom), using a processing system to produce a maximum command force (Force_max) for the electrical taxiing system so that a real value of the electrical parameter reaches the target value (Ld_nmax), the processing system comprising a regulator loop having a setpoint (Ld_set) defined from the target value (Ld_nmax) and having a command (Cmd_ld) from which the maximum command force (Force_max) is defined; and • generating an optimized force command (Cmd_opt) for the electrical taxiing system equal to the smaller of the nominal force command and the maximum command force, • transforming the optimized force command (Cmd_opt) into an actual force command (Cmd_act) that is used for controlling the electric motor.
Propulsion assembly for an aircraft comprising a nacelle and an engine arranged inside the nacelle and supplied with fuel by a fuel supply line , the engine comprising a combustion chamber and, downstream of said chamber, an exhaust nozzle for ejecting the combustion gases out of the nacelle, the exhaust nozzle being delimited by a closed and angle-free wall of curved radial cross section, the exhaust nozzle extending longitudinally between a first end and a second end , the propulsion assembly further comprising a heat exchanger system of which the exhaust nozzle forms a part, the heat exchanger system comprising a circulation line of which a portion , termed integrated portion, is arranged within the thickness of the wall of the exhaust nozzle , a first end of the circulation line being connected at a first tapping point (P1) to the supply line , and a second end of the circulation line being connected at a second tapping point (P2) to the supply line , the second tapping point (P2) being situated downstream of the first tapping point (P1) when considering the direction of circulation of the fuel in the supply line , characterized in that the heat exchanger system comprises leak-detection means configured to detect a leak of the fluid out of the circulation line , a control unit connected to the leak-detection means , and a variable-opening valve mounted on the circulation line and controlled to open and close by the control unit .