mhurhangee/patent-ind-claim-en huggingface dataset:
A bispecific antibody construct comprising a first human binding domain which binds to human CDH19 on the surface of a target cell and a second binding domain which binds to human CD3 on the surface of a T cell, wherein the antibody construct is in the format (scFv) 2 , wherein the first binding domain comprises a VH region and a VL region selected from the group consisting of: pairs of a VH region and a VL region as depicted in SEQ ID NO: 8+10, SEQ ID NO: 21+23, SEQ ID NO: 34+36, SEQ ID NO: 73+75, SEQ ID NO: 86+88, SEQ ID NO: 99+101, SEQ ID NO: 112+114, SEQ ID NO: 125+127, SEQ ID NO: 138+140, SEQ ID NO: 164+166, SEQ ID NO: 177+179, SEQ ID NO: 190+192, SEQ ID NO: 229+231, SEQ ID NO: 281+283, SEQ ID NO: 294+296, SEQ ID NO: 307+309, SEQ ID NO: 320+322, SEQ ID NO: 333+335, SEQ ID NO: 346+348, SEQ ID NO: 385+387, SEQ ID NO: 398+400, SEQ ID NO: 424+426, SEQ ID NO: 437+439, SEQ ID NO: 476+478, SEQ ID NO: 502+504 SEQ ID NO: 515+517, SEQ ID NO: 528+530, SEQ ID NO: 541+543, SEQ ID NO: 554+556, SEQ ID NO: 580+582 and SEQ ID NO: 606+608, and wherein the second binding domain comprises a VH region comprising the sequence and a VH region comprising the sequence wherein the first binding domain comprises a VH region and a VL region selected from the group consisting of: pairs of a VH region and a VL region as depicted in SEQ ID NO: 8+10, SEQ ID NO: 21+23, SEQ ID NO: 34+36, SEQ ID NO: 73+75, SEQ ID NO: 86+88, SEQ ID NO: 99+101, SEQ ID NO: 112+114, SEQ ID NO: 125+127, SEQ ID NO: 138+140, SEQ ID NO: 164+166, SEQ ID NO: 177+179, SEQ ID NO: 190+192, SEQ ID NO: 229+231, SEQ ID NO: 281+283, SEQ ID NO: 294+296, SEQ ID NO: 307+309, SEQ ID NO: 320+322, SEQ ID NO: 333+335, SEQ ID NO: 346+348, SEQ ID NO: 385+387, SEQ ID NO: 398+400, SEQ ID NO: 424+426, SEQ ID NO: 437+439, SEQ ID NO: 476+478, SEQ ID NO: 502+504 SEQ ID NO: 515+517, SEQ ID NO: 528+530, SEQ ID NO: 541+543, SEQ ID NO: 554+556, SEQ ID NO: 580+582 and SEQ ID NO: 606+608, and wherein the second binding domain comprises a VH region comprising the sequence and a VH region comprising the sequence
Compound of formula (I) in which the following applies to the functional groups R 1 , R 2 , R 3 , R 6 , X and indices m, n, p, simultaneously or independently of one another: R 1 , R 2 = alkyl, simultaneously or independently of one another, R 3 = alkyl, aryl, -O-aryl, -O-alkylaryl or -O-arylalkyl, R 6 = hydrogen, alkyl or -NHC(O)NR 1 R 2 , X = oxygen or sulfur, m = 1, 2 or 3, n = 0, 1 or 2, where: m + n = 3 p = 0, 1 or 2. R 1 , R 2 = alkyl, simultaneously or independently of one another, R 3 = alkyl, aryl, -O-aryl, -O-alkylaryl or -O-arylalkyl, R 6 = hydrogen, alkyl or -NHC(O)NR 1 R 2 , X = oxygen or sulfur, m = 1, 2 or 3, n = 0, 1 or 2, where: m + n = 3 p = 0, 1 or 2.
A cart assembly configured to move a work piece about a work floor, the cart assembly comprising: a base having a top side and a bottom side spaced from the top side , the bottom side configured to be supported on the work floor; a table positioned on the top side of the base and comprising a first end , a second end spaced from the first end , a pivot disposed towards the first end , and a work surface that extends between the first and second ends and configured to support the work piece, the table pivotally mounted to move about the pivot between a horizontal position and a vertical position; a tilt mechanism coupled to the table and configured to rotate the table about the pivot between the horizontal position and the vertical position; a lift mechanism disposed between the base and the table , the lift mechanism configured to move the table relative to the base between a lowered position defining a first distance above the work floor and a raised position defining a second distance above the work floor that is greater than the first distance, characterised further in that the cart assembly comprises further a trolley comprising wheels configured to be supported on the work floor, the trolley connected to the base and horizontally movable relative to the base along the work floor between a retracted position and an extended position; wherein in the retracted position, the trolley is vertically overlapped by the first end of the table and in the extended position the trolley is horizontally spaced away from the first end of the table . a base having a top side and a bottom side spaced from the top side , the bottom side configured to be supported on the work floor; a table positioned on the top side of the base and comprising a first end , a second end spaced from the first end , a pivot disposed towards the first end , and a work surface that extends between the first and second ends and configured to support the work piece, the table pivotally mounted to move about the pivot between a horizontal position and a vertical position; a tilt mechanism coupled to the table and configured to rotate the table about the pivot between the horizontal position and the vertical position; a lift mechanism disposed between the base and the table , the lift mechanism configured to move the table relative to the base between a lowered position defining a first distance above the work floor and a raised position defining a second distance above the work floor that is greater than the first distance, characterised further in that the cart assembly comprises further a trolley comprising wheels configured to be supported on the work floor, the trolley connected to the base and horizontally movable relative to the base along the work floor between a retracted position and an extended position; wherein in the retracted position, the trolley is vertically overlapped by the first end of the table and in the extended position the trolley is horizontally spaced away from the first end of the table .
A coated glass article comprising: a glass substrate ; and a coating deposited over the glass substrate , wherein the coating comprises: i. a first inorganic metal oxide layer deposited over a major surface of the glass substrate , wherein the first inorganic metal oxide layer has a refractive index of 1.8 or more, ii. a second inorganic metal oxide layer deposited over and directly on the first inorganic metal oxide layer , wherein the second inorganic metal oxide layer has a refractive index of 1.6 or less, wherein the coated glass article exhibits a total visible light reflectance of 6.5% or less; wherein the first inorganic metal oxide layer comprises tin oxide or titanium dioxide; wherein the second inorganic metal oxide layer comprises silicon dioxide; wherein the coating further comprises a third inorganic metal oxide , the third inorganic metal oxide layer being deposited directly on the major surface of the glass substrate and having a refractive index of 1.6 or less, and the first inorganic metal oxide layer being deposited directly on the third inorganic metal oxide layer ; wherein the first inorganic metal oxide layer is deposited at a thickness of 50 nm or less; and wherein the second inorganic metal oxide layer is deposited at a thickness of 100 nm or more. a glass substrate ; and a coating deposited over the glass substrate , wherein the coating comprises: i. a first inorganic metal oxide layer deposited over a major surface of the glass substrate , wherein the first inorganic metal oxide layer has a refractive index of 1.8 or more, ii. a second inorganic metal oxide layer deposited over and directly on the first inorganic metal oxide layer , wherein the second inorganic metal oxide layer has a refractive index of 1.6 or less, i. a first inorganic metal oxide layer deposited over a major surface of the glass substrate , wherein the first inorganic metal oxide layer has a refractive index of 1.8 or more, ii. a second inorganic metal oxide layer deposited over and directly on the first inorganic metal oxide layer , wherein the second inorganic metal oxide layer has a refractive index of 1.6 or less, wherein the coated glass article exhibits a total visible light reflectance of 6.5% or less;
A method for purifying or isolating protein from a sample comprising cells and one or more humic substance contaminants, wherein the sample is a soil sample, the method comprising the steps of: (a) contacting the soil sample with a first solution comprising at least 0.1 vol% non-ionic detergent, at least 10mM Tris buffer, 10 to 100 mM salt wherein the first solution comprises one or more inorganic salts, and at least 1 vol% polyol, wherein the one or more inorganic salts in the first solution is selected from sodium salts, potassium salts, calcium salts, magnesium salts, chloride salts, bicarbonate salts and sulfate salts; and (b) contacting the resulting mixture of step (a) with a second solution comprising 1 to 6M inorganic salt, wherein the inorganic salt in the second solution is selected from sodium salts, potassium salts, calcium salts, magnesium salts, chloride salts, bicarbonate salts and sulfate salts, and wherein the total salt concentration in the mixture after the addition of the second solution is from 0.2 to 1M; and (c) recovering protein from the mixture. (a) contacting the soil sample with a first solution comprising at least 0.1 vol% non-ionic detergent, at least 10mM Tris buffer, 10 to 100 mM salt wherein the first solution comprises one or more inorganic salts, and at least 1 vol% polyol, wherein the one or more inorganic salts in the first solution is selected from sodium salts, potassium salts, calcium salts, magnesium salts, chloride salts, bicarbonate salts and sulfate salts; and (b) contacting the resulting mixture of step (a) with a second solution comprising 1 to 6M inorganic salt, wherein the inorganic salt in the second solution is selected from sodium salts, potassium salts, calcium salts, magnesium salts, chloride salts, bicarbonate salts and sulfate salts, and wherein the total salt concentration in the mixture after the addition of the second solution is from 0.2 to 1M; and (c) recovering protein from the mixture.
A method of operating a communication device that includes at least (i) a first network interface (106; 202) configured to operate according to a first communication protocol and (ii) a second network interface (108; 208) configured to operate according to a second communication protocol, the method comprising: operating the first network interface (106; 202) according to the first communication protocol, wherein the first communication protocol defines a periodically repeating set of time intervals containing a plurality of time intervals; determining one or more time intervals , from the set of time intervals , during which a serving base station is unlikely to schedule communication, wherein determining the one or more time intervals is based on a received message indicating particular time intervals during which to perform channel quality measurements; and during the determined one or more time intervals , suspending operation of the first network interface (106; 202) according to the first communication protocol such that the first network interface does not receive data for the communication device or transmit data during the one or more time intervals, and enabling operation of the second network interface (108; 208) according to the second communication protocol. operating the first network interface (106; 202) according to the first communication protocol, wherein the first communication protocol defines a periodically repeating set of time intervals containing a plurality of time intervals; determining one or more time intervals , from the set of time intervals , during which a serving base station is unlikely to schedule communication, wherein determining the one or more time intervals is based on a received message indicating particular time intervals during which to perform channel quality measurements; and during the determined one or more time intervals , suspending operation of the first network interface (106; 202) according to the first communication protocol such that the first network interface does not receive data for the communication device or transmit data during the one or more time intervals, and enabling operation of the second network interface (108; 208) according to the second communication protocol.
A battery cell arrangement , comprising: a plurality of battery cells , each battery cell having two terminals ; a plurality of interconnection elements , each interconnection element electrically interconnecting a terminal of a battery cell with a terminal of a further battery cell , wherein the interconnection elements are formed of a terminal of the battery cell and a terminal of an adjacent battery cell , which are bent towards each other; a plurality of heat spreader plates , each heat spreader plate arranged between two adjacent battery cells ; wherein at least one heat spreader plate between two adjacent battery cells has an interface element protruding from a body of the heat spreader plate ; wherein the interface element is formed of a bent part of the heat spreader plate ; wherein the interface element is in contact with one of the interconnection elements of the two adjacent battery cells , such that the heat spreader plate is in thermal contact with the terminals forming the interconnection element ; wherein the bent part protruding from the body of the heat spreader plate is bent to have an area in direct contact with the interconnection element ; wherein the heat spreader plate and the interface element are made from one metal sheet; wherein the battery cell arrangement comprises an electrically isolating and thermally conducting element between the heat spreader plate and at least one of the adjacent battery cells . a plurality of battery cells , each battery cell having two terminals ; a plurality of interconnection elements , each interconnection element electrically interconnecting a terminal of a battery cell with a terminal of a further battery cell , wherein the interconnection elements are formed of a terminal of the battery cell and a terminal of an adjacent battery cell , which are bent towards each other; a plurality of heat spreader plates , each heat spreader plate arranged between two adjacent battery cells ; wherein at least one heat spreader plate between two adjacent battery cells has an interface element protruding from a body of the heat spreader plate ; wherein the interface element is formed of a bent part of the heat spreader plate ; wherein the interface element is in contact with one of the interconnection elements of the two adjacent battery cells , such that the heat spreader plate is in thermal contact with the terminals forming the interconnection element ; wherein the bent part protruding from the body of the heat spreader plate is bent to have an area in direct contact with the interconnection element ; wherein the heat spreader plate and the interface element are made from one metal sheet; wherein the battery cell arrangement comprises an electrically isolating and thermally conducting element between the heat spreader plate and at least one of the adjacent battery cells .
Slide for guiding a roller shutter or the like used to seal or, on the contrary, release an opening disposed in an opening of a building, comprising: - a main profile arranged to be applied to a vertical face of said opening, comprising a longitudinal pivot axis and a longitudinal retaining element , and forming one of the longitudinal edges of a guide slot , - a removable profile comprising a longitudinal hinge element and cooperating in a functional position with said main profile to form the other longitudinal edge of the guide slot , and - a clamping member elastically deformable and provided with an engagement protrusion , said slide being configured so that the rotation of the hinge element of the removable profile about the pivot axis to the functional position of said removable profile ensures that said engagement protrusion engages on the retaining element , said slide being characterised in that the clamping member is detachably attached to the removable profile . - a main profile arranged to be applied to a vertical face of said opening, comprising a longitudinal pivot axis and a longitudinal retaining element , and forming one of the longitudinal edges of a guide slot , - a removable profile comprising a longitudinal hinge element and cooperating in a functional position with said main profile to form the other longitudinal edge of the guide slot , and - a clamping member elastically deformable and provided with an engagement protrusion , said slide being configured so that the rotation of the hinge element of the removable profile about the pivot axis to the functional position of said removable profile ensures that said engagement protrusion engages on the retaining element , said slide being characterised in that the clamping member is detachably attached to the removable profile .
Tank system for a liquid reducing agent, comprising a dispensing installation , a dispensing valve which is arranged outside the dispensing installation and is connected via a conveying line to a conveying device for the reducing agent in the dispensing installation , wherein the conveying line between the dispensing valve and the dispensing installation is heatable via a heating device, characterized in that the heating device comprises at least one flow line arranged on the conveying line and at least one return line arranged on the conveying line , through which a heating medium flows and which, together with the conveying line , are arranged within a protective hose .
An injection molded component, comprising: a functional portion ; and a quality control portion , wherein the quality control portion comprises at least one protrusion which is adapted to distort visibly in response to injection molding shrinkage, thereby to enable visual quality control inspection; characterized in that the at least one protrusion comprises a set of protrusions (46a-46e) of different susceptibility to deformation in response to injection molding shrinkage. a functional portion ; and a quality control portion , wherein the quality control portion comprises at least one protrusion which is adapted to distort visibly in response to injection molding shrinkage, thereby to enable visual quality control inspection; characterized in that the at least one protrusion comprises a set of protrusions (46a-46e) of different susceptibility to deformation in response to injection molding shrinkage.
A detector element for a digital imaging system, the detector element comprising: at least one top electrode metal-semiconductor-metal (MSM) detector; and at least one bottom electrode MSM detector; characterized in that said at least one top electrode MSM detector and said at least one bottom electrode MSM detector share a common semiconducting layer . at least one top electrode metal-semiconductor-metal (MSM) detector; and at least one bottom electrode MSM detector; characterized in that said at least one top electrode MSM detector and said at least one bottom electrode MSM detector share a common semiconducting layer .
A method of identifying sensory inputs affecting working memory load of an individual , the method being performed by a computer and comprising: monitoring (S101) working memory load of the individual using a sensor device ; and detecting (S102) an increase in the monitored working memory load of the individual ; the method further comprising: registering a sound using a built-in microphone of the computer; and identifying (S103), in response to detecting the increase in the monitored working memory load of the individual, the registered sound as a sensory input affecting the working memory load of the individual , by identifying the registered sound to coincide in time with the detected increase in the monitored working memory load; concluding that the individual has started an audio player of the computer; and diminishing (S104a, S104b) an impact that the sound has on the working memory load of the individual by lowering a sound level being output by the audio player via a loudspeaker of the computer. monitoring (S101) working memory load of the individual using a sensor device ; and detecting (S102) an increase in the monitored working memory load of the individual ; registering a sound using a built-in microphone of the computer; and identifying (S103), in response to detecting the increase in the monitored working memory load of the individual, the registered sound as a sensory input affecting the working memory load of the individual , by identifying the registered sound to coincide in time with the detected increase in the monitored working memory load; concluding that the individual has started an audio player of the computer; and diminishing (S104a, S104b) an impact that the sound has on the working memory load of the individual by lowering a sound level being output by the audio player via a loudspeaker of the computer.
A method of migrating face authentication profile data in a user device, the method comprising: updating the user device to include both a current version of firmware and an updated version of the firmware; subsequent to the updating, receiving an indication of a face-authentication attempt and image data associated with a user's face; loading both the current version of the firmware and the updated version of the firmware in a same secure session; executing the current version of the firmware to generate comparison data using the image data; authenticating the user to unlock the user device based on the comparison data substantially matching a first profile, the first profile based on a set of enrolled embeddings that were previously generated using the current version of the firmware on previously-captured image data of the user's face; responsive to authenticating the user to unlock the user device, generating one or more new embeddings by executing the updated version of the firmware using the image data associated with the user's face; storing the one or more new embeddings at a separate location from the set of enrolled embeddings, the one or more new embeddings stored as part of a second profile for the user; and generating additional new embeddings by repeatedly executing the updated version of the firmware over a series of subsequent successful face-authentication attempts until a sufficient amount of the new embeddings are generated and stored to enable the second profile to be usable to authenticate the user. updating the user device to include both a current version of firmware and an updated version of the firmware; subsequent to the updating, receiving an indication of a face-authentication attempt and image data associated with a user's face; loading both the current version of the firmware and the updated version of the firmware in a same secure session; executing the current version of the firmware to generate comparison data using the image data; authenticating the user to unlock the user device based on the comparison data substantially matching a first profile, the first profile based on a set of enrolled embeddings that were previously generated using the current version of the firmware on previously-captured image data of the user's face; responsive to authenticating the user to unlock the user device, generating one or more new embeddings by executing the updated version of the firmware using the image data associated with the user's face; storing the one or more new embeddings at a separate location from the set of enrolled embeddings, the one or more new embeddings stored as part of a second profile for the user; and generating additional new embeddings by repeatedly executing the updated version of the firmware over a series of subsequent successful face-authentication attempts until a sufficient amount of the new embeddings are generated and stored to enable the second profile to be usable to authenticate the user.