mhurhangee/patent-ind-claim-en huggingface dataset:
An aerosol-generating device configured to receive an aerosol-generating article , wherein the aerosol-generating device has a distal end and a mouth end , the aerosol-generating device comprising: a housing , the housing comprising a peripheral wall , the peripheral wall defining a device cavity having an open end for removably receiving the aerosol-generating article at the mouth end of the device , wherein the open end of the device cavity is located at the mouth end face t2t of the device ; and a heater for heating the aerosol-generating article when the aerosol-generating article is received within the device cavity; wherein the housing comprises a ventilation chamber , the ventilation chamber being defined within the peripheral wall , and the ventilation chamber being configured to be in fluid communication with the exterior of the aerosol-generating device and an aerosol-generating article received within the device cavity, wherein the ventilation chamber is configured to be in fluid communication with the exterior of the aerosol-generating device through a chamber inlet defined within the thickness of the peripheral wall , the chamber inlet having a cross-sectional area that is smaller than a cross-sectional area of the ventilation chamber and extending between the ventilation chamber and the mouth end r face of the aerosol-generating device , further wherein a length of the ventilation chamber is less than or equal to 8 mm. a housing , the housing comprising a peripheral wall , the peripheral wall defining a device cavity having an open end for removably receiving the aerosol-generating article at the mouth end of the device , wherein the open end of the device cavity is located at the mouth end face t2t of the device ; and a heater for heating the aerosol-generating article when the aerosol-generating article is received within the device cavity; wherein the housing comprises a ventilation chamber , the ventilation chamber being defined within the peripheral wall , and the ventilation chamber being configured to be in fluid communication with the exterior of the aerosol-generating device and an aerosol-generating article received within the device cavity, wherein the ventilation chamber is configured to be in fluid communication with the exterior of the aerosol-generating device through a chamber inlet defined within the thickness of the peripheral wall , the chamber inlet having a cross-sectional area that is smaller than a cross-sectional area of the ventilation chamber and extending between the ventilation chamber and the mouth end r face of the aerosol-generating device , further wherein a length of the ventilation chamber is less than or equal to 8 mm.
A method for producing a heat-treated concentrated dairy product (cdp), the method comprising the steps of: passing the dairy product (dp) under a pre-determined pressure through a reverse osmosis, RO, filter at a first temperature, the pre-determined pressure being sufficient to allow reverse osmosis, thereby concentrating the dairy product (dp), pre-heating the dairy product or the concentrated dairy product (dp) at a second temperature within a range of 95 to 125° C for a second period of time within a range of 30 sec to 6 min to stabilize the dairy product or the concentrated dairy product (dp), homogenizing the stabilized concentrated dairy product (dp) to reduce a size of particles in the stabilized concentrated dairy product (dp), and heating the stabilized concentrated dairy product (dp) at a third temperature within a range of 120 to 140°C for a third period of time within a range of 1 sec to 8 min to reduce microorganisms in the stabilized concentrated dairy product (dp), thereby forming the heat-treated concentrated dairy product (cdp); characterized in that the step of homogenizing the stabilized concentrated dairy product (dp) is performed prior to the step of heating the stabilized concentrated dairy product (dp). passing the dairy product (dp) under a pre-determined pressure through a reverse osmosis, RO, filter at a first temperature, the pre-determined pressure being sufficient to allow reverse osmosis, thereby concentrating the dairy product (dp), pre-heating the dairy product or the concentrated dairy product (dp) at a second temperature within a range of 95 to 125° C for a second period of time within a range of 30 sec to 6 min to stabilize the dairy product or the concentrated dairy product (dp), homogenizing the stabilized concentrated dairy product (dp) to reduce a size of particles in the stabilized concentrated dairy product (dp), and heating the stabilized concentrated dairy product (dp) at a third temperature within a range of 120 to 140°C for a third period of time within a range of 1 sec to 8 min to reduce microorganisms in the stabilized concentrated dairy product (dp), thereby forming the heat-treated concentrated dairy product (cdp); characterized in that the step of homogenizing the stabilized concentrated dairy product (dp) is performed prior to the step of heating the stabilized concentrated dairy product (dp).
An electronics enclosure arrangement for an electric device , , , said electric device , , comprising one or more circuit boards and electronics components , assembled on said one or more circuit boards , wherein said electronics enclosure arrangement comprises: - an electronics enclosure cover ; and - an at least one volume element part , , , arranged in the space between said electronics enclosure cover and said one or more circuit boards with said electronics components , , characterized in that said at least one volume element part , , , comprises an at least one bubble structure sheet , or an at least one pillow structure sheet , , - said at least one bubble structure sheet , having a sheet frame , with one or more bubbles , , , arranged within said sheet frame , , and - said at least one pillow structure sheet , having an at least partly hollow structure consisting of one or more pillows arranged inside said at least one pillow structure sheet , . - an electronics enclosure cover ; and - an at least one volume element part , , , arranged in the space between said electronics enclosure cover and said one or more circuit boards with said electronics components , , - said at least one bubble structure sheet , having a sheet frame , with one or more bubbles , , , arranged within said sheet frame , , and - said at least one pillow structure sheet , having an at least partly hollow structure consisting of one or more pillows arranged inside said at least one pillow structure sheet , .
A method for manufacturing an integrated circuit, IC, module, the method comprising: obtaining a substrate with contact gaps , wherein the substrate has a first surface and a second surface ; attaching an IC die to the first surface of the substrate ; making electrical connections (108-1, 108-2) between the IC die and the substrate ; dispensing an encapsulation material onto the first surface of the substrate, the IC die and into first portions of the contact gaps to form an encapsulation, the portion of the encapsulation on the first surface side of the substrate covering a first area of the first surface of the substrate, the first portions of the contact gaps being located within said first area of the substrate ; and dispensing a filling material into second portions of the contact gaps , the second portions of the contact gaps being the portions of the contact gaps that are not encompassed by said first area, wherein the substrate extends laterally from said first area of the substrate , and wherein the substrate includes a metal leadframe with the contact gaps , wherein at least some of the contact gaps of the metal leadframe include structures to anchor the encapsulation to the metal leadframe, and characterized in that the structures are contiguous with the contact gaps and include wider gaps than the contact gaps . obtaining a substrate with contact gaps , wherein the substrate has a first surface and a second surface ; attaching an IC die to the first surface of the substrate ; making electrical connections (108-1, 108-2) between the IC die and the substrate ; dispensing an encapsulation material onto the first surface of the substrate, the IC die and into first portions of the contact gaps to form an encapsulation, the portion of the encapsulation on the first surface side of the substrate covering a first area of the first surface of the substrate, the first portions of the contact gaps being located within said first area of the substrate ; and dispensing a filling material into second portions of the contact gaps , the second portions of the contact gaps being the portions of the contact gaps that are not encompassed by said first area, wherein the substrate extends laterally from said first area of the substrate , and wherein the substrate includes a metal leadframe with the contact gaps , wherein at least some of the contact gaps of the metal leadframe include structures to anchor the encapsulation to the metal leadframe, and characterized in that the structures are contiguous with the contact gaps and include wider gaps than the contact gaps .
An anti-Folate receptor 1 (FOLR1) immunoconjugate for use in cancer therapy in a human subject, wherein an FOLR1 staining intensity score of 2 or greater has been detected in greater than 75% of cells in a cancer sample obtained from the human subject using an immunohistochemistry (IHC) detection method that distinguishes between staining intensity and staining uniformity in a FOLR1 expressing cancer sample as compared to staining intensity and staining uniformity in one or more reference samples, wherein the anti-FOLR1 immunoconjugate for use in cancer therapy comprises (i) an anti-FOLR1 antibody or antigen binding fragment thereof comprising (a) a heavy chain CDR1 comprising the amino acids GYFMN of SEQ ID NO: 3; a heavy chain CDR2 comprising the amino acids RIHPYDGDTFYNQKFQG of SEQ ID NO: 3; and a heavy chain CDR3 comprising the amino acids YDGSRAMDY of SEQ ID NO: 3; and (b) a light chain CDR1 comprising the amino acids KASQSVSFAGTSLMH of SEQ ID NO: 4 or 5 ; a light chain CDR2 comprising the amino acids RASNLEA of SEQ ID NO: 4 or 5; and a light chain CDR3 comprising the amino acids QQSREYPYT of SEQ ID NO: 4 or 5; (ii) the linker N-succinimidyl 4-(2-pyridyldithio)-2-sulfobutanoate (sulfo-SPDB); and (iii) the cytotoxic agent N -deacetyl-N -(4-mercapto-4-methyl-1-oxopentyl)-maytansine (DM4), wherein the linker links the antibody or antigen-binding fragment thereof to the cytotoxic agent. (i) an anti-FOLR1 antibody or antigen binding fragment thereof comprising (a) a heavy chain CDR1 comprising the amino acids GYFMN of SEQ ID NO: 3; a heavy chain CDR2 comprising the amino acids RIHPYDGDTFYNQKFQG of SEQ ID NO: 3; and a heavy chain CDR3 comprising the amino acids YDGSRAMDY of SEQ ID NO: 3; and (b) a light chain CDR1 comprising the amino acids KASQSVSFAGTSLMH of SEQ ID NO: 4 or 5 ; a light chain CDR2 comprising the amino acids RASNLEA of SEQ ID NO: 4 or 5; and a light chain CDR3 comprising the amino acids QQSREYPYT of SEQ ID NO: 4 or 5; (a) a heavy chain CDR1 comprising the amino acids GYFMN of SEQ ID NO: 3; a heavy chain CDR2 comprising the amino acids RIHPYDGDTFYNQKFQG of SEQ ID NO: 3; and a heavy chain CDR3 comprising the amino acids YDGSRAMDY of SEQ ID NO: 3; and (b) a light chain CDR1 comprising the amino acids KASQSVSFAGTSLMH of SEQ ID NO: 4 or 5 ; a light chain CDR2 comprising the amino acids RASNLEA of SEQ ID NO: 4 or 5; and a light chain CDR3 comprising the amino acids QQSREYPYT of SEQ ID NO: 4 or 5; (ii) the linker N-succinimidyl 4-(2-pyridyldithio)-2-sulfobutanoate (sulfo-SPDB); and (iii) the cytotoxic agent N -deacetyl-N -(4-mercapto-4-methyl-1-oxopentyl)-maytansine (DM4), wherein the linker links the antibody or antigen-binding fragment thereof to the cytotoxic agent.
A method for generating laser radiation by means of a temperature-controlled optical setup , comprising an optically nonlinear solid-state medium having an active region, which is arranged in a resonator (17.1, 17.2, 17.3, 17.4, 17.5), wherein pump radiation introduced into the solid-state medium , supported by constructive interference, generates outgoing laser radiation, wherein by adapting the resonator length by setting a first temperature (T 1 ) within a first section of the active region and adapting the phases of the wavelengths generated and involved in the generation of the laser radiation by setting a second temperature (T 2 ) within a second section of the active region, wherein the active region extends over the entire solid-state medium .
Impregnating resin based on curable epoxy resins for impregnating repair and/or lining hoses for water-carrying supply and drainage channels, comprising a) an epoxy resin mixture comprising a first curable epoxy resin E1 and at least one other curable epoxy resin E2 that is different from the first epoxy resin E1, and b) a latent curing system comprising at least one curing agent H for curing the epoxy resins and at least one curing accelerator B, for accelerating the curing by means of the curing agent H, wherein the impregnating resin has an average Ø EEW mixture in the range of from 50 to < 200 g/val and a viscosity in the range of from 5 to 70 Pa*s at 25 °C before curing, measured on a HAAKE RheoStress 1 viscometer with a 1° rotary cone made of titanium with a diameter of 35 mm and a shear rate of 5.0 1/s. a) an epoxy resin mixture comprising a first curable epoxy resin E1 and at least one other curable epoxy resin E2 that is different from the first epoxy resin E1, and b) a latent curing system comprising at least one curing agent H for curing the epoxy resins and at least one curing accelerator B, for accelerating the curing by means of the curing agent H,
A resin-metal composite member for a tire, comprising a metal member and a resin layer that is disposed around the metal member, the resin layer comprising a glyceride compound and a resin having an ester bond.
A method for controlling groups calls in an elevator system, which method comprises the steps of: receiving an identification of a person calling an elevator from an elevator calling panel ; receiving a call for an elevator for a group of people, wherein a number of passengers and destination floor are included in the call information; receiving an identification identifying said person from the called elevator car ; counting or estimating the number of persons entered to the elevator and compare the counted or estimated number of persons to the call information storing said received information to a memory of an apparatus connected to said elevator system; and processing said stored information by using a processor of said apparatus ; and operating elevator in accordance with the processing result. receiving an identification of a person calling an elevator from an elevator calling panel ; receiving a call for an elevator for a group of people, wherein a number of passengers and destination floor are included in the call information; receiving an identification identifying said person from the called elevator car ; counting or estimating the number of persons entered to the elevator and compare the counted or estimated number of persons to the call information storing said received information to a memory of an apparatus connected to said elevator system; and processing said stored information by using a processor of said apparatus ; and operating elevator in accordance with the processing result.
Operating circuit for an LED lamp , comprising: - an input stage for generating a DC voltage (Vdc) from a mains voltage (Vn) supplied to the operating circuit ; - a step-down converter for converting the DC voltage (Vdc) into an operating signal (S) for the LED lamp ; and - a controller which is designed to: - monitor a difference between the voltage level (V1) of the DC voltage (Vdc) and the voltage level (V2) of the operating signal (S), and control a speed of an adjustment process of the operating signal (S) depending on the monitored difference, wherein the adjustment process is a dimming process and the controller is designed to reduce the speed of the dimming process if the difference falls below a first threshold value (T1), wherein during the adjustment process, control signals are generated which are supplied to the step-down converter and the control signals cause the step-down converter to adjust the operating signal (S) accordingly. - an input stage for generating a DC voltage (Vdc) from a mains voltage (Vn) supplied to the operating circuit ; - a step-down converter for converting the DC voltage (Vdc) into an operating signal (S) for the LED lamp ; and - a controller which is designed to: - monitor a difference between the voltage level (V1) of the DC voltage (Vdc) and the voltage level (V2) of the operating signal (S), and control a speed of an adjustment process of the operating signal (S) depending on the monitored difference, wherein the adjustment process is a dimming process and the controller is designed to reduce the speed of the dimming process if the difference falls below a first threshold value (T1),
Method for operating a charging station for electric vehicles, wherein - a switching state of at least one fuse (14a-c) arranged between a grid connection of the charging station and a charging cable connection of the charging station is monitored and - with the aid of a contact state, a connection of a charging cable with the charging cable connection and a separation of the charging cable from the charging cable connection is monitored, characterised in that - an opening of the fuse (14a-c) occurring during a connection of the charging cable with the charging cable connection is detected with the aid of the monitored switching state and - in the case of a detected opening, the fuse (14a-c) is autonomously closed caused by the detected separation of the charging cable from the charging cable connection , wherein - the fuse (14a-c) is not autonomously closed in case an opening of the fuse (14a-c) is detected while the charging cable is not connected to the charging cable connection . - a switching state of at least one fuse (14a-c) arranged between a grid connection of the charging station and a charging cable connection of the charging station is monitored and - with the aid of a contact state, a connection of a charging cable with the charging cable connection and a separation of the charging cable from the charging cable connection is monitored, - an opening of the fuse (14a-c) occurring during a connection of the charging cable with the charging cable connection is detected with the aid of the monitored switching state and - in the case of a detected opening, the fuse (14a-c) is autonomously closed caused by the detected separation of the charging cable from the charging cable connection , wherein - the fuse (14a-c) is not autonomously closed in case an opening of the fuse (14a-c) is detected while the charging cable is not connected to the charging cable connection .
Apparatus for monitoring a power capacitor (LK), wherein the power capacitor (LK) has a housing, the housing interior (GI) of which can be closed off in a gas-tight manner at at least one housing opening (GO), and wherein the apparatus comprises at least one sensor device (SE), which outputs an electrical signal as a function of a gas pressure in the housing, and an adapter (AD), which mechanically connects the sensor device (SE) to the housing at the housing opening (GO) and fluidically connects it to the housing interior (GI), wherein the adapter (AD) has a cylindrical adapter body (AK) divided into a plurality of functional longitudinal sections (LA1-LA4) and a feed-through (DF) for the fluidic connection extending over the plurality of longitudinal sections (LA1-LA4), wherein a first longitudinal section (LA1) of the adapter body (AK), which is arranged in the region of the housing opening (GO) after the connection of the adapter (AD) to the housing, caps off the feed-through (DF) in a plane perpendicular to a longitudinal axis (AC) of the adapter body (AK) and fluidically connects it to the housing interior (GI) in at least one plane parallel with the longitudinal axis (AC). wherein the apparatus comprises at least one sensor device (SE), which outputs an electrical signal as a function of a gas pressure in the housing, and an adapter (AD), which mechanically connects the sensor device (SE) to the housing at the housing opening (GO) and fluidically connects it to the housing interior (GI), wherein the adapter (AD) has a cylindrical adapter body (AK) divided into a plurality of functional longitudinal sections (LA1-LA4) and a feed-through (DF) for the fluidic connection extending over the plurality of longitudinal sections (LA1-LA4), wherein a first longitudinal section (LA1) of the adapter body (AK), which is arranged in the region of the housing opening (GO) after the connection of the adapter (AD) to the housing, caps off the feed-through (DF) in a plane perpendicular to a longitudinal axis (AC) of the adapter body (AK) and fluidically connects it to the housing interior (GI) in at least one plane parallel with the longitudinal axis (AC).
A multirotor aircraft with an airframe and at least one wing that is mounted to the airframe , the at least one wing being provided with at least four thrust producing units for producing thrust in a predetermined direction, the at least four thrust producing units being arranged in spanwise direction of the at least one wing , wherein each one of the at least four thrust producing units comprises at least one rotor assembly that is accommodated in an associated shrouding , the associated shrouding being integrated into the at least one wing , wherein the associated shrouding defines an air duct that is axially delimited by an air inlet region and an air outlet region , the air duct being cylindrical, characterized in that the air duct comprises a front side duct wall , a board side duct wall , a rear side duct wall , and a star board side duct wall , wherein at least the front side duct wall and the board side and star board side duct walls exhibit different heights in axial direction of the air duct , wherein the different heights define an undulated geometry, and wherein the air inlet region exhibits in circumferential direction of the air duct at least two different aerodynamic profiles .
A method for detecting a current attack in a computerized environment, the method being automatically performed by one or more computerized hosts of the computerized environment and comprising: - generating a signature which is specific for a type of activity in the computerized environment based on historic data of the activity, the signature specifying averaged normalized numbers of occurrences of the activity per time frame of a plurality of recurring time frames, - determining a threshold value for the activity based on the historic data of the activity and a statistical measure, - monitoring current data of the activity in the computerized environment, and - generating an attack detection alert based on determining that the current data of the activity exceeds the threshold value for a current time frame. - generating a signature which is specific for a type of activity in the computerized environment based on historic data of the activity, the signature specifying averaged normalized numbers of occurrences of the activity per time frame of a plurality of recurring time frames, - determining a threshold value for the activity based on the historic data of the activity and a statistical measure, - monitoring current data of the activity in the computerized environment, and - generating an attack detection alert based on determining that the current data of the activity exceeds the threshold value for a current time frame.