mhurhangee/patent-ind-claim-en huggingface dataset:
A ducted fan comprising: a fan configured to rotate about an axial line (X) to generate a flow of air; and a cowl having a cylindrical shape extending in an axial line direction and surrounding the fan about the axial line (X), and including an introduction port on a first end portion side of the cowl and a discharge port on a second end portion side of the cowl , the cowl forming, inwards in a radial direction of the cowl, a flow path in which air flows from the introduction port to the discharge port by rotation of the fan , the fan including a compressor blade provided on an outer circumferential side and a thrust blade provided on an inner circumferential side of the compressor blade , the cowl including a housing portion configured to accommodate the compressor blade in an interior thereof, an outlet configured to allow air flowing through the housing portion to be blown therethrough by the compressor blade , and an inlet configured to suck air blown out from the outlet , the outlet being provided inwards in the radial direction of the cowl and near the introduction port of the cowl , and characterized in that the inlet being provided inwards in the radial direction of the cowl and between the outlet and the compressor blade in the axial line (X) direction. a fan configured to rotate about an axial line (X) to generate a flow of air; and a cowl having a cylindrical shape extending in an axial line direction and surrounding the fan about the axial line (X), and including an introduction port on a first end portion side of the cowl and a discharge port on a second end portion side of the cowl , the cowl forming, inwards in a radial direction of the cowl, a flow path in which air flows from the introduction port to the discharge port by rotation of the fan , the fan including a compressor blade provided on an outer circumferential side and a thrust blade provided on an inner circumferential side of the compressor blade , the cowl including a housing portion configured to accommodate the compressor blade in an interior thereof, an outlet configured to allow air flowing through the housing portion to be blown therethrough by the compressor blade , and an inlet configured to suck air blown out from the outlet , the outlet being provided inwards in the radial direction of the cowl and near the introduction port of the cowl , and
Isolated epitope peptide having from 12 to 25 amino acids, wherein the amino acid sequence comprises a sequence as defined in SEQ ID NO:32 (X 1 X 2 R X 4 X 5 A X 7 S X 9 W X 11 X 12 ), wherein X 1 can be P or A, wherein X 2 can be D or a conservative substitution of D; wherein X 4 can be K, or a conservative substitution of K or serine; wherein X 5 can be A or R, or a conservative substitution of A or R; wherein X 7 can be V or a conservative substitution of V, wherein X 9 can be H or a conservative substitution of H, wherein X 11 and X 12 can be Q or a conservative substitution of Q, wherein the isolated epitope peptide does not comprise an amino acid sequence as defined by SEQ ID NO:3 ( R KA A V S H W ).
An integrated device package comprising: a carrier ; and an integrated device die mounted to the carrier, the integrated device die comprising a microelectromechanical (MEMS) die comprising a cap formed over the die; characterized in that : the integrated device die further comprises a unitary body comprising a pedestal and first and second overhang regions , the first and second overhang regions monolithically formed with a proximal end portion of the pedestal, the first overhang region and the second overhang region disposed on opposing sides of the pedestal such that the pedestal is laterally inset from lateral edges of each of the first and second overhang regions, wherein the pedestal comprises a distal portion attached to the carrier; and wherein the pedestal comprises a recess, groove, or opening formed therein. a carrier ; and an integrated device die mounted to the carrier, the integrated device die comprising a microelectromechanical (MEMS) die comprising a cap formed over the die; characterized in that : the integrated device die further comprises a unitary body comprising a pedestal and first and second overhang regions , the first and second overhang regions monolithically formed with a proximal end portion of the pedestal, the first overhang region and the second overhang region disposed on opposing sides of the pedestal such that the pedestal is laterally inset from lateral edges of each of the first and second overhang regions, wherein the pedestal comprises a distal portion attached to the carrier; and wherein the pedestal comprises a recess, groove, or opening formed therein. the integrated device die further comprises a unitary body comprising a pedestal and first and second overhang regions , the first and second overhang regions monolithically formed with a proximal end portion of the pedestal, the first overhang region and the second overhang region disposed on opposing sides of the pedestal such that the pedestal is laterally inset from lateral edges of each of the first and second overhang regions, wherein the pedestal comprises a distal portion attached to the carrier; and wherein the pedestal comprises a recess, groove, or opening formed therein.
An absorbent article comprising a liquid pervious topsheet , a liquid impervious backsheet , an absorbent core positioned between the liquid pervious topsheet and the liquid impervious backsheet, said absorbent core comprising a bottom core wrap , a top core wrap and absorbent material between the bottom core wrap and the top core wrap, and a capillary acceleration sheet between the absorbent core and the liquid pervious topsheet ; wherein the absorbent material comprises superabsorbent particles and optionally cellulosic fluff pulp, wherein the absorbent material is arranged such that one or more channels are formed, wherein less absorbent material per surface area is present in the one or more channels compared to an area around the one or more channels, wherein preferably substantially no absorbent material is present in the one or more channels, wherein the capillary acceleration sheet is a through-air-bonded nonwoven having a basis weight between 20 and 30 gsm.
Electric heater , in particular for a heating or an air-conditioning system of a motor vehicle, with a heating block comprising a plurality of electric heating elements and a plurality of radiator elements , the electric heater having an electric control element which is electrically connected to the electric heating elements , wherein the heating block comprises an air inlet side and an air outlet side , wherein the air inlet side comprises a heat sink , wherein the heat sink and the electric control element are thermally coupled, wherein the heating block comprises an encompassing frame element , characterised in that the encompassing frame element comprises at least one through opening which is arranged adjacent to the at least one heat sink and wherein the heating block comprises a first longitudinal side and a second longitudinal side opposite the first longitudinal side , the heat sink is arranged on the air inlet side of the heating block and extends between the first longitudinal side and the second longitudinal side of the heating block , the heat sink comprises a first end which is arranged adjacent to the first longitudinal side of the heating block and a second end which is arranged adjacent to the second longitudinal side of the heating block , the encompassing frame element comprises a first through opening which is piercing the encompassing frame element adjacent to the first end of the heat sink and the encompassing frame element comprises a second through opening which is piercing the encompassing frame element adjacent to the second end of the heat sink .
Method for manufacturing a vaporizer assembly for an inhaler, comprising providing a plurality of connection stations and performing at least one assembly step at each connection station to manufacture a vaporizer assembly at each connection station , wherein the connection stations are interconnected by an assembly framework , characterized in that the assembly framework is belt-shaped and is advanced to perform assembly steps.
A test device for testing a microphone with at least one test loudspeaker for generating at least one test tone , with at least one test cavity , into which the test tone can be emitted, with at least one accommodating area for accommodating the microphone to be tested, which is designed in such a way that the microphone to be tested can be acoustically coupled to the test cavity , and with at least one reference microphone for ascertaining a reference signal of the test tone to be emitted from the test loudspeaker , wherein the test device comprises a reference cavity separated from the test cavity , into which the test tone can also be emitted and with which the reference microphone is acoustically coupled for ascertaining the reference signal, and/or wherein the accommodating area is arranged on a first side of the test loudspeaker and the reference microphone is arranged on a second side of the test loudspeaker opposite the first side characterized in that the test loudspeaker comprises a diaphragm , by means of which the test tone can be emitted into the test cavity and into the reference cavity , and that the diaphragm has a larger area than a cross-sectional area of the test cavity . with at least one test loudspeaker for generating at least one test tone , with at least one test cavity , into which the test tone can be emitted, with at least one accommodating area for accommodating the microphone to be tested, which is designed in such a way that the microphone to be tested can be acoustically coupled to the test cavity , and with at least one reference microphone for ascertaining a reference signal of the test tone to be emitted from the test loudspeaker , wherein the test device comprises a reference cavity separated from the test cavity , into which the test tone can also be emitted and with which the reference microphone is acoustically coupled for ascertaining the reference signal, and/or wherein the accommodating area is arranged on a first side of the test loudspeaker and the reference microphone is arranged on a second side of the test loudspeaker opposite the first side characterized in that the test loudspeaker comprises a diaphragm , by means of which the test tone can be emitted into the test cavity and into the reference cavity , and that the diaphragm has a larger area than a cross-sectional area of the test cavity .
A shrink face film for a label capable to shrink under exposure to external energy, the face film comprising a first skin layer, a second skin layer and a core layer in between the first skin layer and the second skin layer, wherein - the first skin layer and the second skin layer comprise propylene terpolymer(s) between 1 and 99 wt.%, and - the core layer comprises between 50 and 70 wt.% of propylene terpolymer(s), and from above 30 to at most 50 wt.% of a modifier, which is at least one of the following: olefinic plastomer, olefinic elastomer and ethylene-octene block copolymer. - the first skin layer and the second skin layer comprise propylene terpolymer(s) between 1 and 99 wt.%, and - the core layer comprises between 50 and 70 wt.% of propylene terpolymer(s), and from above 30 to at most 50 wt.% of a modifier, which is at least one of the following: olefinic plastomer, olefinic elastomer and ethylene-octene block copolymer.
A medical diagnostic device for diagnosis of a subject's condition, the device comprising: (A) a main body comprising a power source; (B) flexible anatomical interface shaped to contact either an outer ear or a cheek of the subject, the flexible anatomical interface comprising a connection that is aligned with an ear canal of the subject while the flexible anatomical interface is in contact with the outer ear or the cheek of the subject; and (C) a diagnostic extension attached to the main body , the diagnostic extension configured to be inserted into the ear canal aligned with the connection to the flexible anatomical interface , the diagnostic extension positioned to capture diagnostic information, the flexible anatomical interface stabilizing the device as the diagnostic extension is positioned in the ear canal and captures the diagnostic information. (A) a main body comprising a power source; (B) flexible anatomical interface shaped to contact either an outer ear or a cheek of the subject, the flexible anatomical interface comprising a connection that is aligned with an ear canal of the subject while the flexible anatomical interface is in contact with the outer ear or the cheek of the subject; and (C) a diagnostic extension attached to the main body , the diagnostic extension configured to be inserted into the ear canal aligned with the connection to the flexible anatomical interface , the diagnostic extension positioned to capture diagnostic information, the flexible anatomical interface stabilizing the device as the diagnostic extension is positioned in the ear canal and captures the diagnostic information.
An electric-vehicle-body structure (A) for an electric vehicle , said structure (A) being constituted by a lower-portion structural body and an upper-portion structural body , the lower-portion structural body including a traveling motor (M) and a battery unit (Y) that supplies electric power to the traveling motor (M), wherein the battery unit (Y) includes a battery frame extending in the vehicle front-rear direction, and the upper-portion structural body comprising: a floor panel constituting a floor of an occupant space (R1) including a seat (FS, RS) on which a passenger is able to sit, wherein the battery frame is disposed at a lower position than the floor panel ; the electric-vehicle-body structure being characterized in a center frame disposed to be higher than and away from the floor panel at a vehicle-width-direction central portion of the occupant space and extending in a vehicle front-rear direction, wherein disposition positions of the battery frame and the center frame are set to achieve a positional relation in which at least one battery frame member (16 to 19) of the battery frame and the center frame overlap each other in a plan view. the lower-portion structural body including a traveling motor (M) and a battery unit (Y) that supplies electric power to the traveling motor (M), wherein the battery unit (Y) includes a battery frame extending in the vehicle front-rear direction, and the upper-portion structural body comprising: a floor panel constituting a floor of an occupant space (R1) including a seat (FS, RS) on which a passenger is able to sit, wherein the battery frame is disposed at a lower position than the floor panel ; the electric-vehicle-body structure being characterized in a center frame disposed to be higher than and away from the floor panel at a vehicle-width-direction central portion of the occupant space and extending in a vehicle front-rear direction, wherein disposition positions of the battery frame and the center frame are set to achieve a positional relation in which at least one battery frame member (16 to 19) of the battery frame and the center frame overlap each other in a plan view. a center frame disposed to be higher than and away from the floor panel at a vehicle-width-direction central portion of the occupant space and extending in a vehicle front-rear direction, wherein disposition positions of the battery frame and the center frame are set to achieve a positional relation in which at least one battery frame member (16 to 19) of the battery frame and the center frame overlap each other in a plan view.
A method for testing and evaluating heat transfer elements at high temperature operations, the method comprising: introducing (step 102) a heat transfer fluid (HTF) and a secondary fluid into at least one heat exchanger; measuring (step 104) at least one thermodynamic parameter related to heat transfer between the HTF and the secondary fluid; determining at least one thermo-physical parameter of said HTF based on at least one measured thermodynamic parameter related to the secondary fluid; grading the heat transfer fluid based on the at least one thermo-physical parameter of said HTF; the method being characterised in that it further comprises: determining (step 112) at least one stability related parameter for the heat transfer fluid, wherein the at least one stability related parameter indicates at least a rate of degradation in performance of the heat transfer fluid over a pre-determined time period. introducing (step 102) a heat transfer fluid (HTF) and a secondary fluid into at least one heat exchanger; measuring (step 104) at least one thermodynamic parameter related to heat transfer between the HTF and the secondary fluid; determining at least one thermo-physical parameter of said HTF based on at least one measured thermodynamic parameter related to the secondary fluid; grading the heat transfer fluid based on the at least one thermo-physical parameter of said HTF; the method being characterised in that it further comprises: determining (step 112) at least one stability related parameter for the heat transfer fluid, wherein the at least one stability related parameter indicates at least a rate of degradation in performance of the heat transfer fluid over a pre-determined time period. determining (step 112) at least one stability related parameter for the heat transfer fluid, wherein the at least one stability related parameter indicates at least a rate of degradation in performance of the heat transfer fluid over a pre-determined time period.
A computer-implemented method of managing interactive object input, the method comprising: enabling , by one or more processors, a computing device to initiate one or more functions in response to input received from an interactive object that is remote from the computing device; obtaining , by the one or more processors, movement data indicative of movement associated with a user of the interactive object, wherein the movement is detected by one sensor of the interactive object, the one sensor includes a touch sensor comprising a plurality of sensing lines integrated with the interactive object, the touch sensor includes a first surface configured to detect touch input provided by the user of the interactive object to the plurality of sensing lines, the touch sensor being further capable of detecting touch input at a second, opposite surface of the touch sensor, wherein touch input detected by the sensing lines at the second surface is associated with an unintentional touch input, and wherein sensing circuitry coupled to the plurality of sensing lines generates sensor data based on the touch input; determining , by the one or more processors, that the movement data is indicative of one or more predefined motions associated with a separation of the user from the interactive object by analyzing the sensor data; and in response to the movement data being indicative of the one or more predefined motions, disabling , by the one or more processors, the computing device from initiating the one or more functions in response to input received from the interactive object. enabling , by one or more processors, a computing device to initiate one or more functions in response to input received from an interactive object that is remote from the computing device; obtaining , by the one or more processors, movement data indicative of movement associated with a user of the interactive object, wherein the movement is detected by one sensor of the interactive object, the one sensor includes a touch sensor comprising a plurality of sensing lines integrated with the interactive object, the touch sensor includes a first surface configured to detect touch input provided by the user of the interactive object to the plurality of sensing lines, the touch sensor being further capable of detecting touch input at a second, opposite surface of the touch sensor, wherein touch input detected by the sensing lines at the second surface is associated with an unintentional touch input, and wherein sensing circuitry coupled to the plurality of sensing lines generates sensor data based on the touch input; determining , by the one or more processors, that the movement data is indicative of one or more predefined motions associated with a separation of the user from the interactive object by analyzing the sensor data; and in response to the movement data being indicative of the one or more predefined motions, disabling , by the one or more processors, the computing device from initiating the one or more functions in response to input received from the interactive object.
A method for controlling access in an access control system for persons or vehicles, wherein the access control system has a multi-lane access, wherein each access lane is assigned an access control device , wherein the checking of an access authorization is carried out by means of the evaluation of an ID transmitted at regular intervals by a mobile electronic device located closest to an access control device of the access control system in an access direction, by a first standard in the context of broadcasting, to which ID at least one access authorization, which is received by transceiver units connected to a computer comprising a CPU and storage means, within range of the mobile electronic device , is assigned in an unambiguous manner, wherein a mobile electronic device is identified as the mobile electronic device located closest to an access control device in the access direction, if a connection is established between the mobile electronic device and the access control device by means of a second standard, which has a smaller range than the first standard which only covers an area around the access control device , in which only one person can be located, in the case of an access control system for people, or in which only one vehicle can be located, in the case of an access control system for vehicles, wherein in the context of broadcasting by means of the first standard, the information that a connection is established between the mobile electronic device and the access control device by means of the second standard is transmitted, wherein when a connection is established via the second standard between the mobile electronic device and an access control device , an ID of the access control device is transmitted via the second standard to the mobile electronic device, which is also transmitted via the first standard in the context of broadcasting, in order to identify the access control device to which the mobile electronic device is most closely located.
A method of separating and analyzing a mixture of oligonucleotides, including performing liquid chromatography using a column packed with a packing material obtained by fixing a diol to a surface of each of porous particles formed of a crosslinked organic polymer, wherein a structure of the diol includes a structure represented by the following formula (I): R-O-CH 2 -CH(OH)-CH 2 (OH) (I) where R represents a partial structure of each of the porous particles.