mhurhangee/patent-ind-claim-en huggingface dataset:
A transducer for detecting a target substance (102, 202a, 202b, 302a, 302b, 402, 502', 502"), the transducer comprising: one or more first filters configured to transmit electromagnetic radiation at preselected wavelengths to obtain filtered electromagnetic radiation; and one or more chambers disposed within an optical path of the one or more first filters; wherein the one or more chambers are configured to shift an energy of the filtered electromagnetic radiation from the preselected wavelengths to wavelengths different from the preselected wavelengths, and to emit electromagnetic radiation at the wavelengths different from the preselected wavelengths. one or more first filters configured to transmit electromagnetic radiation at preselected wavelengths to obtain filtered electromagnetic radiation; and one or more chambers disposed within an optical path of the one or more first filters;
An electronic device , comprising: a display screen ; a first color temperature sensor and a second color temperature sensor ; a filter element , located between the second color temperature sensor and the display screen , to filter ambient light incident on the second color temperature sensor , such that ambient light cannot be transmitted to the second color sensor ; a processing element , connected with the first color temperature sensor and the second color temperature sensor respectively, to determine ambient light color temperature of an environment where the electronic device is located according to a first color temperature signal value detected by the first color temperature sensor and a second color temperature signal value detected by the second color temperature sensor ; and characterised by : the first color temperature sensor and the second color temperature sensor are arranged side by side at intervals under the display screen , wherein an interval between the first color temperature sensor and the second color temperature sensor is set to be within a preset range. a display screen ; a first color temperature sensor and a second color temperature sensor ; a filter element , located between the second color temperature sensor and the display screen , to filter ambient light incident on the second color temperature sensor , such that ambient light cannot be transmitted to the second color sensor ; a processing element , connected with the first color temperature sensor and the second color temperature sensor respectively, to determine ambient light color temperature of an environment where the electronic device is located according to a first color temperature signal value detected by the first color temperature sensor and a second color temperature signal value detected by the second color temperature sensor ; and characterised by : the first color temperature sensor and the second color temperature sensor are arranged side by side at intervals under the display screen , wherein an interval between the first color temperature sensor and the second color temperature sensor is set to be within a preset range.
Drink powder, containing: a) 40 - 80 % by weight hydrolysed pea protein; and b) 20 - 50 % by weight cocoa powder. a) 40 - 80 % by weight hydrolysed pea protein; and b) 20 - 50 % by weight cocoa powder.
A backlit inductive touch sensor key, comprising: a substrate ; an inductive sense coil on the substrate ; a light source (218; 318; 418) mounted on top of the substrate , in the substrate or on the opposite side of the substrate , wherein the light source (218; 318; 418) is mounted on either side or inside the inductive sense coil ; an opaque spacer layer on the substrate and having an opening that surrounds the inductive sense coil and the light source (218; 318; 418); an over-layer having openings therein to allow light to pass therethrough from the light source, the over-layer is mounted on the spacer layer and forms a cavity including a light transmission cavity between the substrate and the over-layer; an over-mold button attached to a side of the over-layer opposite to the light transmission cavity , the over-mold button being light transmissive; and a metal target attached directly above the inductive sense coil within the light transmission cavity to a face of the over-layer which can be pushed into the cavity toward the inductive sense coil , whereupon an impedance value of the inductive sense coil changes. a substrate ; an inductive sense coil on the substrate ; a light source (218; 318; 418) mounted on top of the substrate , in the substrate or on the opposite side of the substrate , wherein the light source (218; 318; 418) is mounted on either side or inside the inductive sense coil ; an opaque spacer layer on the substrate and having an opening that surrounds the inductive sense coil and the light source (218; 318; 418); an over-layer having openings therein to allow light to pass therethrough from the light source, the over-layer is mounted on the spacer layer and forms a cavity including a light transmission cavity between the substrate and the over-layer; an over-mold button attached to a side of the over-layer opposite to the light transmission cavity , the over-mold button being light transmissive; and a metal target attached directly above the inductive sense coil within the light transmission cavity to a face of the over-layer which can be pushed into the cavity toward the inductive sense coil , whereupon an impedance value of the inductive sense coil changes.
A combination weighing apparatus , comprising: a distributing portion with an upper side and a lower side, that includes a conveying face on the upper side of the distributing portion which conveys a weighed object in a direction towards an outer edge portion of the conveying face ; a plurality of conveying portions arranged in a radial manner from a central axis (A) passing through a center of the distributing portion and extending in a vertical direction along the outer edge portion of the distributing portion and convey the weighed object discharged from the distributing portion ; and a guide ring having a plurality of guide blocks arranged in a radial manner from the central axis (A) along the outer edge portion of the distributing portion , wherein the distributing portion is provided with a projecting portion lower than the conveying face in the outer edge portion of the conveying face , and the plurality of guide blocks each have an end surface extending along the central axis at an end portion of the distributing portion , and the projecting portion is arranged at a position opposing the end surface of each of the plurality of guide blocks . a distributing portion with an upper side and a lower side, that includes a conveying face on the upper side of the distributing portion which conveys a weighed object in a direction towards an outer edge portion of the conveying face ; a plurality of conveying portions arranged in a radial manner from a central axis (A) passing through a center of the distributing portion and extending in a vertical direction along the outer edge portion of the distributing portion and convey the weighed object discharged from the distributing portion ; and a guide ring having a plurality of guide blocks arranged in a radial manner from the central axis (A) along the outer edge portion of the distributing portion , wherein the distributing portion is provided with a projecting portion lower than the conveying face in the outer edge portion of the conveying face , and the plurality of guide blocks each have an end surface extending along the central axis at an end portion of the distributing portion , and the projecting portion is arranged at a position opposing the end surface of each of the plurality of guide blocks .
A protein-polymer conjugate of formula I: wherein each of R 1 , R 2 , R 3 , R 4 , and R 5 , independently, is H each of A 1 and A 2 , independently, is an mPEG moiety having a molecular weight of 10-30 kD; G 3 is a bond and each of G 1 and G 2 is wherein O is attached to A 1 or A 2 , and NH is attached to a carbon atom as shown in formula I; P is an interferon-α 2b , interferon-β, a human growth hormone, or an erythropoietin in which the amino group at the N-terminus is attached to G 3 ; m is 0 or an integer of 1-10, optionally, m is 4; and n is an integer of 1-10, optionally, n is 2. each of R 1 , R 2 , R 3 , R 4 , and R 5 , independently, is H each of A 1 and A 2 , independently, is an mPEG moiety having a molecular weight of 10-30 kD; G 3 is a bond and each of G 1 and G 2 is wherein O is attached to A 1 or A 2 , and NH is attached to a carbon atom as shown in formula I; P is an interferon-α 2b , interferon-β, a human growth hormone, or an erythropoietin in which the amino group at the N-terminus is attached to G 3 ; m is 0 or an integer of 1-10, optionally, m is 4; and n is an integer of 1-10, optionally, n is 2.
A tube which has a double-walled construction, wherein the material of the interior wall comprises ceramic matrix composite and the material of the exterior wall comprises metal, wherein the double-walled tube wall has a ratio of thermal conductivity and wall thickness (heat transfer coefficient) at 800°C of > 50 W/(m 2 ·K).
A method for the production of Adeno-associated virus (AAV), comprising the steps of: (a) providing a stable AAV producer host cell line in which all genes encoding the components necessary for the production of AAV are stably integrated into 5 the host cell genome; (b) culturing said cells in perfusion culture during the AAV production step, wherein said perfusion culture encompasses continuous replacement of spent media with fresh media, and wherein said continuous replacement of spent media with fresh media continues after the induction of AAV production, wherein the following genes are stably integrated into the host cell genome: the genes encoding the AAV Cap proteins VP1, VP2, and VP3; the genes encoding the AAV Rep proteins Rep78 and Rep68, the genes encoding the AAV Rep proteins Rep52 and Rep40; the genes encoding the adenoviral helper functions E4orf6, E2A, and VA-RNA, the genes encoding the Ad5 helper genes E1A and E1B, and the gene of interest (GOI) flanked by AAV ITRs, and wherein the expression of the four Rep proteins and the expression of the adenoviral helper functions E2A and E4orf6 are under the control of an inducible system. (a) providing a stable AAV producer host cell line in which all genes encoding the components necessary for the production of AAV are stably integrated into 5 the host cell genome; (b) culturing said cells in perfusion culture during the AAV production step, wherein said perfusion culture encompasses continuous replacement of spent media with fresh media, and wherein said continuous replacement of spent media with fresh media continues after the induction of AAV production, the genes encoding the AAV Cap proteins VP1, VP2, and VP3; the genes encoding the AAV Rep proteins Rep78 and Rep68, the genes encoding the AAV Rep proteins Rep52 and Rep40; the genes encoding the adenoviral helper functions E4orf6, E2A, and VA-RNA, the genes encoding the Ad5 helper genes E1A and E1B, and the gene of interest (GOI) flanked by AAV ITRs, and wherein the expression of the four Rep proteins and the expression of the adenoviral helper functions E2A and E4orf6 are under the control of an inducible system.
A method for forming a coating system on a metallic component comprising: depositing a reactive layer comprising a thin film of chemically conditioned calcium-magnesium-alumino-silicate (CMAS) powder and one or more of Y 2 Zr 2 O 7 , Gd 2 Zr 2 O 7 and TiO 2 on at least a portion of a thermal barrier coating; and activating the reactive layer with a scanning laser to form a chemically reacted and crystallized CMAS glass, further comprising preparing a powder mixture having a chemical composition with a melting temperature, which after thermo-chemical reaction with the thermal barrier coating, is at least 28 degrees Celsius (50 degrees Fahrenheit) higher than the melting temperature of environmental CMAS, and wherein activating the reactive layer includes fusing the reactive layer and at least a portion of the thermal barrier coating and completes an additive manufacturing process bonding the reactive layer to the thermal barrier coating. depositing a reactive layer comprising a thin film of chemically conditioned calcium-magnesium-alumino-silicate (CMAS) powder and one or more of Y 2 Zr 2 O 7 , Gd 2 Zr 2 O 7 and TiO 2 on at least a portion of a thermal barrier coating; and activating the reactive layer with a scanning laser to form a chemically reacted and crystallized CMAS glass, further comprising preparing a powder mixture having a chemical composition with a melting temperature, which after thermo-chemical reaction with the thermal barrier coating, is at least 28 degrees Celsius (50 degrees Fahrenheit) higher than the melting temperature of environmental CMAS, and wherein activating the reactive layer includes fusing the reactive layer and at least a portion of the thermal barrier coating and completes an additive manufacturing process bonding the reactive layer to the thermal barrier coating.
A receptacle for minimizing evaporation of a fluid, comprising: a single-piece body comprising: a first chamber having a first chamber volume and a first chamber opening, the first chamber containing a first portion of a fluid; a second chamber having a second chamber volume, a second chamber opening separate from the first chamber opening, the second chamber containing a second portion of the fluid; a first conduit configured to allow fluid communication between the first chamber and the second chamber; and a second conduit configured to allow fluid communication between the first chamber and the second chamber, and comprising: a first conduit portion that opens to the first chamber and has a first width dimension, and a second conduit portion that opens to the second chamber and has a second width dimension greater than the first width dimension; and one or more fluid-tight seals affixed to a surface of the body, the surface of the body defining the first and second chamber openings, wherein at least a portion of the one or more fluid-tight seals covers the first chamber opening and is frangible. a first chamber having a first chamber volume and a first chamber opening, the first chamber containing a first portion of a fluid; a second chamber having a second chamber volume, a second chamber opening separate from the first chamber opening, the second chamber containing a second portion of the fluid; a first conduit configured to allow fluid communication between the first chamber and the second chamber; and a second conduit configured to allow fluid communication between the first chamber and the second chamber, and comprising: a first conduit portion that opens to the first chamber and has a first width dimension, and a second conduit portion that opens to the second chamber and has a second width dimension greater than the first width dimension; and one or more fluid-tight seals affixed to a surface of the body, the surface of the body defining the first and second chamber openings, wherein at least a portion of the one or more fluid-tight seals covers the first chamber opening and is frangible. a first conduit portion that opens to the first chamber and has a first width dimension, and a second conduit portion that opens to the second chamber and has a second width dimension greater than the first width dimension; and one or more fluid-tight seals affixed to a surface of the body, the surface of the body defining the first and second chamber openings, wherein at least a portion of the one or more fluid-tight seals covers the first chamber opening and is frangible.
Electrical machine , in particular for a hybrid module of a hybrid vehicle or for an electric vehicle, comprising - a stator and a rotor, wherein - the stator comprises a stator carrier and a laminated core , and wherein - the laminated core has stator teeth on which stator coils are arranged by means of insulating bodies , wherein - a switching ring receptacle is arranged radially next to the stator and is designed to energize the stator coils by means of switching rings (U; V; W) which can be received in the switching ring receptacle , and wherein - at least one reinforcing element is provided on the stator and is arranged axially on the outside of the stator and extends at least partially radially along at least one of the stator coils and radially as far as beyond the switching ring receptacle , wherein - the stator coils are arranged radially between the switching ring receptacle and the stator carrier , wherein - the switching ring receptacle is present as a separate element and is fastened to the insulating bodies , wherein - the reinforcing element is fastened radially on one side to the switching receptacle and on the other side to the stator carrier or to an insulating body , and wherein - the reinforcing element has at least one window opening in the radial region of extent. - a stator and a rotor, wherein - the stator comprises a stator carrier and a laminated core , and wherein - the laminated core has stator teeth on which stator coils are arranged by means of insulating bodies , wherein - a switching ring receptacle is arranged radially next to the stator and is designed to energize the stator coils by means of switching rings (U; V; W) which can be received in the switching ring receptacle , and wherein - at least one reinforcing element is provided on the stator and is arranged axially on the outside of the stator and extends at least partially radially along at least one of the stator coils and radially as far as beyond the switching ring receptacle , wherein - the stator coils are arranged radially between the switching ring receptacle and the stator carrier , wherein - the switching ring receptacle is present as a separate element and is fastened to the insulating bodies , wherein - the reinforcing element is fastened radially on one side to the switching receptacle and on the other side to the stator carrier or to an insulating body , and wherein - the reinforcing element has at least one window opening in the radial region of extent.
Method of MR imaging of at least a portion of a body of a patient placed in an examination volume of a MR device , the method comprising the steps of: - subjecting the portion of the body to a first imaging sequence for acquiring a first signal data set ; - subjecting the portion of the body to a second imaging sequence for acquiring a second signal data set , wherein the imaging parameters of the second imaging sequence differ from the imaging parameters of the first imaging sequence and wherein at least the second signal data set is undersampled, wherein a variable density k-space sampling pattern of the second imaging sequence is determined from the first signal data set ; - reconstructing a MR image from the second signal data set by means of compressed sensing and wherein the compressed sensing reconstruction is constrained by a support , which support is derived from the first signal data set and wherein the imaging parameters of the second imaging sequence differ from the imaging parameters of the first imaging sequence in such a manner that the second signal data set is of a different contrast type than the first signal data set . - subjecting the portion of the body to a first imaging sequence for acquiring a first signal data set ; - subjecting the portion of the body to a second imaging sequence for acquiring a second signal data set , wherein the imaging parameters of the second imaging sequence differ from the imaging parameters of the first imaging sequence and wherein at least the second signal data set is undersampled, wherein a variable density k-space sampling pattern of the second imaging sequence is determined from the first signal data set ; - reconstructing a MR image from the second signal data set by means of compressed sensing and wherein the compressed sensing reconstruction is constrained by a support , which support is derived from the first signal data set and wherein the imaging parameters of the second imaging sequence differ from the imaging parameters of the first imaging sequence in such a manner that the second signal data set is of a different contrast type than the first signal data set .
A method for contextually launching a target application , comprising: communicating data from the target application to a search application, wherein the data comprises a list of actions representing operations for the target application; registering the list of actions in a search registrar associated with the search application; receiving an input from a user using the search application; comparing the input from the user with the list of actions in the search registrar; and if the input matches one of the actions in the list of actions, launching the target application in the context of the operation represented by the matching action, wherein receiving the input and comparing the input further comprises: determining whether the input comprises a range operation; and if the input comprises a range operation: identifying the target application to launch using the search application based on the range operation; identifying a range of results to process with the target application using the search application and based on the range operation; and wherein launching the target application further comprises separately displaying the results within the range in the context of the target application. communicating data from the target application to a search application, wherein the data comprises a list of actions representing operations for the target application; registering the list of actions in a search registrar associated with the search application; receiving an input from a user using the search application; comparing the input from the user with the list of actions in the search registrar; and if the input matches one of the actions in the list of actions, launching the target application in the context of the operation represented by the matching action, wherein receiving the input and comparing the input further comprises: determining whether the input comprises a range operation; and if the input comprises a range operation: identifying the target application to launch using the search application based on the range operation; identifying a range of results to process with the target application using the search application and based on the range operation; and identifying the target application to launch using the search application based on the range operation; identifying a range of results to process with the target application using the search application and based on the range operation; and wherein launching the target application further comprises separately displaying the results within the range in the context of the target application.