mhurhangee/patent-ind-claim-en huggingface dataset:
Aerosol-generating device comprising a device housing comprising a receiving chamber adapted to receive any one of a first-type consumable and a second-type consumable , wherein the receiving chamber comprises a first structure for receiving a first-type consumable and comprises a second structure for receiving a second-type consumable or comprises a structure selector for selecting between a first structure and a second structure, wherein first and second structures differ in at least one of shape, size or position in the receiving chamber; wherein the device further comprises an aerosolization system associated with at least a portion of the receiving chamber , the aerosolization system being configured to cooperate with any of the first type or second type consumable when any of the first type or second type consumable are received in the receiving chamber ; and wherein the receiving chamber is configured such that when a consumable is received in the receiving chamber a further consumable is prevented from being received in the receiving chamber .
A camera lens, comprising a first lens (E1), a second lens (E2), a third lens (E3), a fourth lens (E4), a fifth lens (E5) and a sixth lens (E6) from an object side of the camera lens to an image side of the camera lens in turn, wherein the camera lens does not comprise more than six lenses, wherein the first lens (E1) is of a positive focal power, an object side surface (S1) of the first lens (E1) is convex; the second lens (E2) is of a negative focal power; the third lens (E3) is of a negative focal power, an object side surface (S5) of the third lens (E3) is concave; the fourth lens (E4) is of a positive focal power; the fifth lens (E5) is of a positive focal power, an image side surface (S10) of the fifth lens (E5) is convex; the sixth lens (E6) is of a negative focal power, an image side surface (S12) of the sixth lens (E6) is concave; and the camera lens meets the following formula: 0 < f / f 4 < 0.8 ; 0 < T 12 / T 23 < 0.14 , wherein f represents an effective focal length of the camera lens, f4 represents a focal length of the fourth lens (E4), T12 is a distance between the first lens (E1) and the second lens (E2) along an axial direction, and T23 is a distance between the second lens (E2) and the third lens (E3) along the axial direction, wherein an image side surface (S8) of the fourth lens (E4) is concave; and an object side surface (S7) of the fourth lens (E4) is convex, an object side surface (S3) of the second lens (E2) is convex, and an image side surface (S4) of the second lens (E2) is concave, and an image side surface (S6) of the third lens (E3) is convex. the first lens (E1) is of a positive focal power, an object side surface (S1) of the first lens (E1) is convex; the second lens (E2) is of a negative focal power; the third lens (E3) is of a negative focal power, an object side surface (S5) of the third lens (E3) is concave; the fourth lens (E4) is of a positive focal power; the fifth lens (E5) is of a positive focal power, an image side surface (S10) of the fifth lens (E5) is convex; the sixth lens (E6) is of a negative focal power, an image side surface (S12) of the sixth lens (E6) is concave; and the camera lens meets the following formula: 0 < f / f 4 < 0.8 ; 0 < T 12 / T 23 < 0.14 , wherein f represents an effective focal length of the camera lens, f4 represents a focal length of the fourth lens (E4), T12 is a distance between the first lens (E1) and the second lens (E2) along an axial direction, and T23 is a distance between the second lens (E2) and the third lens (E3) along the axial direction, wherein an image side surface (S8) of the fourth lens (E4) is concave; and an object side surface (S7) of the fourth lens (E4) is convex, an object side surface (S3) of the second lens (E2) is convex, and an image side surface (S4) of the second lens (E2) is concave, and an image side surface (S6) of the third lens (E3) is convex.
A signal buoy for attaching to a submerged object, having a buoyant body and a signal buoy line , the signal buoy line having a cross section (5-5), the cross section having an aspect ratio, wherein (i) the signal buoy line's cross section has an aspect ratio greater than four to one; (ii) the signal buoy line is stored in a stack of layers ; and (iii) a pressure plate is situated so as to apply pressure to the stack of layers . (i) the signal buoy line's cross section has an aspect ratio greater than four to one; (ii) the signal buoy line is stored in a stack of layers ; and (iii) a pressure plate is situated so as to apply pressure to the stack of layers .
A radiographic image capturing system , comprising: a mammography apparatus adapted to emit radiation having a first energy to a subject and to capture a first radiographic image with a radiation detector and to emit radiation having a second energy greater than the first energy to the subject and to capture a second radiographic image with the radiation detector ; wherein the first radiographic image and the second radiographic image are captured with a breast in a state in which a contrast medium using iodine is administered; and a phantom for evaluation of the mammography apparatus that has a solid material as an image evaluation pattern simulating the contrast medium, characterized in that the solid material is an indium tin oxide (ITO) film formed of Sn and In. a mammography apparatus adapted to emit radiation having a first energy to a subject and to capture a first radiographic image with a radiation detector and to emit radiation having a second energy greater than the first energy to the subject and to capture a second radiographic image with the radiation detector ; wherein the first radiographic image and the second radiographic image are captured with a breast in a state in which a contrast medium using iodine is administered; and a phantom for evaluation of the mammography apparatus that has a solid material as an image evaluation pattern simulating the contrast medium, characterized in that the solid material is an indium tin oxide (ITO) film formed of Sn and In.
A film roll comprising: a laminated film comprising, a substrate layer having a first surface and a second surface on opposite sides thereof; an adhesive layer layered upon the first surface; a backing layer that is releasably layered upon the second surface, the backing layer supporting the substrate layer to be in a spread-out state; and fine projections being formed on a surface of the backing layer on a side opposite the substrate layer. wherein the laminated film is wound with the adhesive layer faces inward and tips of the fine projections in contact with the adhesive layer, and wherein an air layer at least partially enclosed by the fine projections is formed between the adhesive layer and the backing layer. a laminated film comprising, a substrate layer having a first surface and a second surface on opposite sides thereof; an adhesive layer layered upon the first surface; a backing layer that is releasably layered upon the second surface, the backing layer supporting the substrate layer to be in a spread-out state; and fine projections being formed on a surface of the backing layer on a side opposite the substrate layer. a substrate layer having a first surface and a second surface on opposite sides thereof; an adhesive layer layered upon the first surface; a backing layer that is releasably layered upon the second surface, the backing layer supporting the substrate layer to be in a spread-out state; and fine projections being formed on a surface of the backing layer on a side opposite the substrate layer. wherein the laminated film is wound with the adhesive layer faces inward and tips of the fine projections in contact with the adhesive layer, and wherein an air layer at least partially enclosed by the fine projections is formed between the adhesive layer and the backing layer.
Industrial truck having a traction battery , wherein the traction battery has a plurality of battery cells arranged in a battery tray and is arranged in a battery compartment of the industrial truck, wherein at least one cooling channel (5; 5a; 5b; 5c) is arranged between the battery cells in the battery tray and the industrial truck is provided with a fan which can be used to produce an airflow flowing through the cooling channel (5; 5a; 5b; 5c), wherein an airflow inlet , which can be connected to the outlet of the fan , and an airflow outlet are formed on the cooling channel (5; 5a; 5b; 5c), wherein the cooling channel (5; 5a; 5b; 5c) is provided with an airflow guiding device which guides the airflow produced by the fan from the airflow inlet to the airflow outlet in the cooling channel (5; 5a; 5b; 5c), characterized in that the cooling channel (5; 5a; 5b; 5c) is covered, on the top side of the battery cells , by a cover on which the airflow inlet and the airflow outlet are formed, and in that the airflow guiding device produces a meandering airflow inside the cooling channel (5; 5a; 5b; 5c) from the airflow inlet to the airflow outlet .
Polypropylene composition (C), comprising i) 80.0 to 99.5.0 wt.-%, based on the overall weight of the polypropylene composition (C), of a first polypropylene (PP1), and ii) 0.5 to 20.0 wt.-%, based on the overall weight of the polypropylene composition (C), of a second polypropylene (PP2) which is different from the first polypropylene (PP1) and has a melting temperature Tm of 130 °C or less, wherein said first polypropylene (PP1) fulfils in-equation (I) C 7 PP 1 − C 6 PP 1 ≤ 1.5 wherein C7(PP1) is the amount of heptane solubles [in wt.-%] determined via Soxhlet extraction within the first polypropylene (PP1) and C6(PP1) is the amount of hexane solubles [in wt.-%] determined via Soxhlet extraction within the first polypropylene (PP1). i) 80.0 to 99.5.0 wt.-%, based on the overall weight of the polypropylene composition (C), of a first polypropylene (PP1), and ii) 0.5 to 20.0 wt.-%, based on the overall weight of the polypropylene composition (C), of a second polypropylene (PP2) which is different from the first polypropylene (PP1) and has a melting temperature Tm of 130 °C or less, C7(PP1) is the amount of heptane solubles [in wt.-%] determined via Soxhlet extraction within the first polypropylene (PP1) and C6(PP1) is the amount of hexane solubles [in wt.-%] determined via Soxhlet extraction within the first polypropylene (PP1).
A compound of formula 1, wherein X is selected from O or S; Ar 1 is selected from C 1 to C 16 alkyl, substituted or unsubstituted C 6 to C 24 aryl or substituted or unsubstituted C 3 to C 36 heteroaryl; Ar 2 is selected from C7 to C11: Ar 3 is selected from C 1 to C 16 alkyl, substituted or unsubstituted C 6 to C 36 aryl or substituted or unsubstituted C 3 to C 36 heteroaryl; and wherein substituted C 6 to C 24 aryl of Ar 1 or substituted C 3 to C 36 heteroaryl of Ar 1 is mono or di-substituted; and wherein substituted C 6 to C 36 aryl of Ar 3 or substituted C 3 to C 36 heteroaryl of Ar 3 is mono or di-substituted. X is selected from O or S; Ar 1 is selected from C 1 to C 16 alkyl, substituted or unsubstituted C 6 to C 24 aryl or substituted or unsubstituted C 3 to C 36 heteroaryl; Ar 2 is selected from C7 to C11: Ar 3 is selected from C 1 to C 16 alkyl, substituted or unsubstituted C 6 to C 36 aryl or substituted or unsubstituted C 3 to C 36 heteroaryl; and substituted C 6 to C 24 aryl of Ar 1 or substituted C 3 to C 36 heteroaryl of Ar 1 is mono or di-substituted; and substituted C 6 to C 36 aryl of Ar 3 or substituted C 3 to C 36 heteroaryl of Ar 3 is mono or di-substituted.
A furniture and other furnishing items comprising a shelf , at least one shoulder positioned perpendicular to each other and a compact joint , wherein said joint comprises a plurality of interconnection and blocking components for joining and firmly blocking said shelf and said at least one shoulder together, wherein said plurality of components lies on the same plane (B) which is, when the joint is assembled to the furniture, perpendicular to said shelf and said at least one shoulder , said plane (B) containing a coupling axis (X) along which axis said shelf and said at least one shoulder are coupled, said coupling axis (X) being defined so that it lies inside said shelf when the joint is assembled to the furniture, said joint further providing an actuation axis (Z), characterized in that the actuation axis (Z) of the joint is perpendicular to the coupling axis (X) and lies on a plane (P) which is, when the joint is assembled to the furniture, parallel and interspaced with respect to the shelf and perpendicular with respect to the at least one shoulder , said joint comprises a pin in turn comprising a housing for receiving an engagement grub screw , at least one hole being provided on the shelf for receiving said pin and said at least one shoulder being provided with a hole configured for the firmly insertion of said pin , said joint further comprises a casing into which said grub screw is housed and configured to be inserted in a hole provided on said shelf , said grub screw being in operable engagement with said pin and movable in said casing by means of a bevel , said bevel comprises a pinion rotatingly positioned inside said casing that is engaged with a toothed crown , produced as the head of a threaded screw in turn positioned in an axial threaded hole inside said grub screw .
A footwear system, comprising: an article of footwear including an upper member and a sole member engaged with the upper member; and a data transmission system engaged with the article of footwear ; a remote system in communication with the data transmission system for receiving data from the data transmission system ; wherein the data transmission system is arranged to transmit data from the article of footwear for receipt by the remote system ; wherein the data transmitted includes user identification data and article of footwear identification data, and wherein the data is configured to be used to register the user for an athletic event or competition; wherein the remote system is configured to register the user for the athletic event or competition using the transmitted data. an article of footwear including an upper member and a sole member engaged with the upper member; and a data transmission system engaged with the article of footwear ; a remote system in communication with the data transmission system for receiving data from the data transmission system ; wherein the data transmission system is arranged to transmit data from the article of footwear for receipt by the remote system ; wherein the data transmitted includes user identification data and article of footwear identification data, and wherein the data is configured to be used to register the user for an athletic event or competition; wherein the remote system is configured to register the user for the athletic event or competition using the transmitted data.
Method (METH) for assisting in determining a position of an identifier (I) for accessing and starting a vehicle (V), in relation to said vehicle (V), comprising: - Transmission (Em_TS vp ), from a first device from among the vehicle (V) and the identifier (I), to a second device, separate from the first, from among the vehicle (V) and the identifier (I), at a transmission time t 0 , of an initial train (TS vp ) of N sinusoidal signals, with identical amplitudes and with respective frequencies f p , p∈[1;N], - Reception (Rec_TS vp '), by the second device, of an image train (TS vp ') corresponding to the initial train (TS vp , TS ip ) altered by the transmission (Em_TS vp ) - Construction (Cons_Sp v ) of a frequency spectrum (Sp v ) of the image train (TS vp ') - An inverse Fourier transform (TFI_Sp v ) of the spectrum (Sp v ), making it possible to obtain a temporal signature (Sg v ) - A first integration (Int1_Sg v ) of the temporal signature (Sg v ), between the transmission time to and a predetermined intermediate time tint, giving a first result (Rlt1) - A second integration (Int2_Sg v ) of the temporal signature (Sg v ), between the intermediate time tint and a predetermined final time t f , giving a second result (Rlt2) - Comparison (Comp_1/2) of a ratio (R) of the first result (Rlt1) to the second result (Rlt2) with a threshold value (S), making it possible to determine whether the identifier (I) is positioned inside the vehicle (V). - Transmission (Em_TS vp ), from a first device from among the vehicle (V) and the identifier (I), to a second device, separate from the first, from among the vehicle (V) and the identifier (I), at a transmission time t 0 , of an initial train (TS vp ) of N sinusoidal signals, with identical amplitudes and with respective frequencies f p , p∈[1;N], - Reception (Rec_TS vp '), by the second device, of an image train (TS vp ') corresponding to the initial train (TS vp , TS ip ) altered by the transmission (Em_TS vp ) - Construction (Cons_Sp v ) of a frequency spectrum (Sp v ) of the image train (TS vp ') - An inverse Fourier transform (TFI_Sp v ) of the spectrum (Sp v ), making it possible to obtain a temporal signature (Sg v ) - A first integration (Int1_Sg v ) of the temporal signature (Sg v ), between the transmission time to and a predetermined intermediate time tint, giving a first result (Rlt1) - A second integration (Int2_Sg v ) of the temporal signature (Sg v ), between the intermediate time tint and a predetermined final time t f , giving a second result (Rlt2) - Comparison (Comp_1/2) of a ratio (R) of the first result (Rlt1) to the second result (Rlt2) with a threshold value (S), making it possible to determine whether the identifier (I) is positioned inside the vehicle (V).
A method comprising: transmitting data to a base unit in a first transmission time interval, TTI, wherein the data are configured for transmission with a predetermined number of repetitions; receiving a control signal from the base unit in a second TTI; and determining whether the control signal corresponds to the data, wherein determining whether the control signal corresponds to the data comprises: identifying a TTI offset between the first TTI and the second TTI, calculating a TTI from the second TTI and the identified TTI offset, and determining whether the calculated TTI matches to the first TTI, wherein the control signal corresponds to the data in response to the calculated TTI matching the first TTI; and determining whether to cease transmission at least one repetition of the data before the number of repetitions reaches the predetermined number in response to the control signal corresponding to the data. transmitting data to a base unit in a first transmission time interval, TTI, wherein the data are configured for transmission with a predetermined number of repetitions; receiving a control signal from the base unit in a second TTI; and determining whether the control signal corresponds to the data, wherein determining whether the control signal corresponds to the data comprises: identifying a TTI offset between the first TTI and the second TTI, calculating a TTI from the second TTI and the identified TTI offset, and determining whether the calculated TTI matches to the first TTI, identifying a TTI offset between the first TTI and the second TTI, calculating a TTI from the second TTI and the identified TTI offset, and determining whether the calculated TTI matches to the first TTI, wherein the control signal corresponds to the data in response to the calculated TTI matching the first TTI; and determining whether to cease transmission at least one repetition of the data before the number of repetitions reaches the predetermined number in response to the control signal corresponding to the data. matching the first TTI; and determining whether to cease transmission at least one repetition of the data before the number of repetitions reaches the predetermined number in response to the control signal corresponding to the data.
A computer-implemented information processing method, that comprises: determining circuit behaviour level description RTL codes according to a code file type of a chip; determining a module, for which a design for testability, DFT, processing is needed, by looking for the lowest layer of a clock and reset unit library in the RTL codes according to tree hierarchical relationships of the RTL codes; establishing , by inserting RTL codes in a file including manner, a DFT signal transmission channel in three locations of a port declaration, a port description and a port instantiation in the module for which the DFT processing is needed; generating entity files of a channel file by writing port signal of the module for which the DFT processing is needed into the channel file; wherein the channel file is an entity file of the DFT signal transmission channel; the entity files of the channel file comprise: a port declaration file, a port description file and a port instantiation file; and interpenetrating the DFT signal transmission channel layer by layer until a top layer of the chip, according to an instantiated reference relationship. determining circuit behaviour level description RTL codes according to a code file type of a chip; determining a module, for which a design for testability, DFT, processing is needed, by looking for the lowest layer of a clock and reset unit library in the RTL codes according to tree hierarchical relationships of the RTL codes; establishing , by inserting RTL codes in a file including manner, a DFT signal transmission channel in three locations of a port declaration, a port description and a port instantiation in the module for which the DFT processing is needed; generating entity files of a channel file by writing port signal of the module for which the DFT processing is needed into the channel file; wherein the channel file is an entity file of the DFT signal transmission channel; the entity files of the channel file comprise: a port declaration file, a port description file and a port instantiation file; and interpenetrating the DFT signal transmission channel layer by layer until a top layer of the chip, according to an instantiated reference relationship.
A method for chemically etching a surface of a part, the method comprising steps of: positioning an etching device proximate to a part , said part having a part surface wherein said etching device comprises: a chamber : a chamber boundary; at least one chamber inlet ; at least one chamber outlet ; and at least one vacuum port in communication with a vacuum source ; engaging the etching device to the part surface; and directing a flow of etchant solution into the chamber inlet, such that the etchant solution contacts the part surface for a predetermined amount of time before exiting the chamber outlet, characterized in that the chamber boundary comprises two spaced O-rings, the at least one vacuum port being positioned on the etching device between the two spaced O-rings, the vacuum source generating a vacuum between the two spaced O-rings. positioning an etching device proximate to a part , said part having a part surface wherein said etching device comprises: a chamber : a chamber boundary; at least one chamber inlet ; at least one chamber outlet ; and at least one vacuum port in communication with a vacuum source ; a chamber boundary; at least one chamber inlet ; at least one chamber outlet ; and at least one vacuum port in communication with a vacuum source ; engaging the etching device to the part surface; and directing a flow of etchant solution into the chamber inlet, such that the etchant solution contacts the part surface for a predetermined amount of time before exiting the chamber outlet, characterized in that the chamber boundary comprises two spaced O-rings, the at least one vacuum port being positioned on the etching device between the two spaced O-rings, the vacuum source generating a vacuum between the two spaced O-rings.