mhurhangee/patent-ind-claim-en huggingface dataset:
A compound of formula (I) including any tautomeric or stereochemically isomeric form thereof, wherein X 1 is N and X 2 is C (a); X 1 is CH and X 2 is C (b); or X 1 is C(=O) and X 2 is N (c); and wherein the doted line represents a bond in case of (a) and (b) and wherein the dotted line is absent in case of (c); n represents an integer equal to 1 or 2; R 1 represents hydrogen, C 1-6 alkyl, hydroxyC 1-6 alkyl, C 1-6 alkyl substituted with - C(=O)NHCH 3 , or C 1-6 alkyl substituted with -S(=O) 2 - C 1-4 alkyl; R 2a represents fluoro or chloro; R 2b represents methoxy or hydroxyl; R 2c represents methoxy or hydroxyl; R 2d represents hydrogen, fluoro or chloro; R 3 represent hydrogen, C 1-6 alkyl, C 3-6 cycloalkyl, or C 1-2 alkyl substituted with C 3-6 cycloalkyl; R 4 represents hydrogen, methyl or ethyl; a pharmaceutically acceptable salt thereof or a solvate thereof. n represents an integer equal to 1 or 2; R 1 represents hydrogen, C 1-6 alkyl, hydroxyC 1-6 alkyl, C 1-6 alkyl substituted with - C(=O)NHCH 3 , or C 1-6 alkyl substituted with -S(=O) 2 - C 1-4 alkyl; R 2a represents fluoro or chloro; R 2b represents methoxy or hydroxyl; R 2c represents methoxy or hydroxyl; R 2d represents hydrogen, fluoro or chloro; R 3 represent hydrogen, C 1-6 alkyl, C 3-6 cycloalkyl, or C 1-2 alkyl substituted with C 3-6 cycloalkyl; R 4 represents hydrogen, methyl or ethyl;
A method for the manufacture of one or more moulded bodies based on cross-linked UHMWPE, comprising the steps: • compressing UHMWPE in powder form into one or more moulded bodies ; • introducing the moulded body or bodies into a receiving space of a receiving device (10; 30; 40), wherein the receiving device (10; 30; 40) comprises a heating means for heating the moulded body or bodies located in the receiving space; • irradiating the moulded body or bodies in the receiving device (10; 30; 40) with gamma - or X-rays, in order to cross-link the UHMWPE; and • removing the moulded body or bodies from the receiving space , wherein the receiving device (10; 30; 40) is set up to control a pre-determined temperature behaviour of the moulded body or bodies before, during and after the irradiation. • compressing UHMWPE in powder form into one or more moulded bodies ; • introducing the moulded body or bodies into a receiving space of a receiving device (10; 30; 40), wherein the receiving device (10; 30; 40) comprises a heating means for heating the moulded body or bodies located in the receiving space; • irradiating the moulded body or bodies in the receiving device (10; 30; 40) with gamma - or X-rays, in order to cross-link the UHMWPE; and • removing the moulded body or bodies from the receiving space ,
A composition for use in filling a nucleus pulposus of an intervertebral disc comprising a low endotoxin monovalent metal salt of alginic acid, which is to be applied to a nucleus pulposus site of a subject, which is cured by bringing a crosslinking agent into contact with at least a part of the surface of the applied composition, and which has fluidity when applied to the nucleus pulposus site.
Apparatus, comprising requesting means adapted to request a requested value of a parameter from a steering device for a terminal; checking means adapted to check if a message received in response to the request comprises an identifier of a group; identifying means adapted to identify, if the message comprises the identifier, a stored value of the parameter, wherein the stored value is stored for the group; applying means adapted to apply the stored value to the terminal.
A method for controlling a container flow, comprising the steps of: a) continuous transportation of containers (B) without dynamic pressure on carriers that are arranged in rows by means of overlays and that run next to each other in the area of the overlays or follow each other in a row in a non-overlapping manner; b) monitoring the container flow with non-contact sensors with regard to the occurrence of gaps between adjacent containers (B1, B2) that require correction, wherein the gaps requiring correction are to be understood as meaning distances between the containers that exceed an assigned maximum value; c) individual control of the carriers for the selective acceleration of containers (B2, B3) that are trailing behind a gap recognized as requiring correction in step b), so that the gap is reduced and at least one compensatory gap is created behind the containers; d) a temporary joint increase in the transport speeds of at least two of the carriers, wherein step d) being carried out after step c), a joint increase in the transport speeds being understood to mean that the carriers simultaneously have an increased transport speed compared to a basic speed, whereby the carriers do not necessarily have to run at the same transport speed; and wherein the transport speeds in step d) are increased together with the operating speed of a machine causing the gaps. a) continuous transportation of containers (B) without dynamic pressure on carriers that are arranged in rows by means of overlays and that run next to each other in the area of the overlays or follow each other in a row in a non-overlapping manner; b) monitoring the container flow with non-contact sensors with regard to the occurrence of gaps between adjacent containers (B1, B2) that require correction, wherein the gaps requiring correction are to be understood as meaning distances between the containers that exceed an assigned maximum value; c) individual control of the carriers for the selective acceleration of containers (B2, B3) that are trailing behind a gap recognized as requiring correction in step b), so that the gap is reduced and at least one compensatory gap is created behind the containers; d) a temporary joint increase in the transport speeds of at least two of the carriers, wherein step d) being carried out after step c), a joint increase in the transport speeds being understood to mean that the carriers simultaneously have an increased transport speed compared to a basic speed, whereby the carriers do not necessarily have to run at the same transport speed; and
A method for determining a distance (D) between ears of a wearer of a sound generating object , the method comprising: selecting a model for representing shape of the head of the wearer of the sound generating object so as to obtain a center axis of the wearer's head, wherein the center axis is an axis substantially perpendicular to a horizontal, ground plane and intersecting a head pivot point of the wearer's head, associating the first sound generating object with an ear of the wearer, wherein the first sound generating object comprises a first accelerometer and a second accelerometer , the respective accelerometers being arranged to measure at least an acceleration component (a1, a2) intersecting at a substantially right angle the center axis of the wearer's head, wherein the first and second accelerometers are so arranged that a straight line that intersects the center axis of the wearer's head at a substantially right angle crosses the first and second accelerometers such that the acceleration components (a1, a2) have the same direction, the first and second accelerometers being spaced by a known distance (Δr), when the head of the wearer is in motion, determining , by means of the first accelerometer , a value of a first acceleration component (a1) and, by means of the second accelerometer , a value of a second acceleration component (a2), determining the distance (D) between the ears of the wearer on the basis of the model, the obtained values of the first and second acceleration components (a1, a2), and the known distance between the first accelerometer and the second accelerometer. selecting a model for representing shape of the head of the wearer of the sound generating object so as to obtain a center axis of the wearer's head, wherein the center axis is an axis substantially perpendicular to a horizontal, ground plane and intersecting a head pivot point of the wearer's head, associating the first sound generating object with an ear of the wearer, wherein the first sound generating object comprises a first accelerometer and a second accelerometer , the respective accelerometers being arranged to measure at least an acceleration component (a1, a2) intersecting at a substantially right angle the center axis of the wearer's head, wherein the first and second accelerometers are so arranged that a straight line that intersects the center axis of the wearer's head at a substantially right angle crosses the first and second accelerometers such that the acceleration components (a1, a2) have the same direction, the first and second accelerometers being spaced by a known distance (Δr), when the head of the wearer is in motion, determining , by means of the first accelerometer , a value of a first acceleration component (a1) and, by means of the second accelerometer , a value of a second acceleration component (a2), determining the distance (D) between the ears of the wearer on the basis of the model, the obtained values of the first and second acceleration components (a1, a2), and the known distance between the first accelerometer and the second accelerometer.
A control unit for a cylinder of a swing axle of a mobile working machine , the control unit comprising the following: - a single inlet port for a fluid line for a pressure medium, - an outlet port for the cylinder , and - a valve unit comprising a control piston , wherein a flow through the control piston is possible through at least one passage opening , and wherein the pressure medium flows through the control piston in the event of a flow between the inlet port and the outlet port , wherein the valve unit further comprises a check valve , wherein the control piston counteracts, in a loaded state, a closing direction of the check valve , wherein the control piston is biased by a biasing element , which acts on the control piston in the same direction as the closing direction of the check valve , wherein in a first operating mode the check valve is open, wherein in a second operating mode the check valve is closed, and wherein the outlet port is a single outlet port . - a single inlet port for a fluid line for a pressure medium, - an outlet port for the cylinder , and - a valve unit comprising a control piston ,
An inductive power transmitter comprising: at least one power transmitting coil configured to generate an inductive power transfer field; and an object detection system configured to detect objects in or adjacent a space occupied by the inductive power transfer field when generated; wherein the object detection system is configured to: detect a receiver object based on a tag associated with the receiver object, energise one or more of the at least one power transmitting coil once the object detection system detects a receiver object, characterised in that the object detection system is further configured to: communicate with the receiver object once the object detection system has detected a receiver object, and if the communication is unsuccessful to deenergise the one or more of the energised power transmitting coils. at least one power transmitting coil configured to generate an inductive power transfer field; and an object detection system configured to detect objects in or adjacent a space occupied by the inductive power transfer field when generated; wherein the object detection system is configured to: detect a receiver object based on a tag associated with the receiver object, energise one or more of the at least one power transmitting coil once the object detection system detects a receiver object, characterised in that the object detection system is further configured to: communicate with the receiver object once the object detection system has detected a receiver object, and if the communication is unsuccessful to deenergise the one or more of the energised power transmitting coils. detect a receiver object based on a tag associated with the receiver object, energise one or more of the at least one power transmitting coil once the object detection system detects a receiver object, characterised in that the object detection system is further configured to: communicate with the receiver object once the object detection system has detected a receiver object, and if the communication is unsuccessful to deenergise the one or more of the energised power transmitting coils.
Rotary piston pump, comprising a pump casing with a substantially cylindrical pump chamber and a rotary piston as a rotor with at least two blades arranged opposite each other in the circumferential direction or distributed evenly, and at least one sealing flap , characterised in that at least two sealing flaps are arranged opposite each other or distributed evenly in the circumferential direction, wherein the at least two sealing flaps are rotatable or pivotable, and wherein an inlet channel extends axially from the respective opposite axial ends in a rotor axle tube and is separate from an axial outlet channel , which leads to at least two inlet openings into the pump chamber and at least two outlet openings from the pump chamber , wherein each of the inlet openings is arranged in the direction of rotation behind and each of the outlet openings in the direction of rotation ahead of one of the blades in the rotor axle tube .
A method comprising: etching a semiconductor material to form a plurality of adjacent mesa shapes , the semiconductor material comprising one or more epitaxial layers; and forming a passivation layer within gaps between the adjacent mesa shapes such that no space remains between adjacent mesa shapes; characterized by planarizing the passivation layer and the semiconductor material, wherein the planarizing produces a flat surface comprising a surface of the passivation layer and a first surface of the semiconductor material; forming a contact layer on the flat surface; and bonding a base wafer to the contact layer. etching a semiconductor material to form a plurality of adjacent mesa shapes , the semiconductor material comprising one or more epitaxial layers; and forming a passivation layer within gaps between the adjacent mesa shapes such that no space remains between adjacent mesa shapes; characterized by planarizing the passivation layer and the semiconductor material, wherein the planarizing produces a flat surface comprising a surface of the passivation layer and a first surface of the semiconductor material; forming a contact layer on the flat surface; and bonding a base wafer to the contact layer.
A rolling bearing comprising a radially outer ring , stationary or rotatably mounted and provided with a central and circumferential groove on its inner surface, at least a radially inner ring , rotatably mounted when the outer ring is stationary, or stationary mounted when the outer ring is rotatable, at least a plurality of rolling bodies , interposed between the radially outer ring and said at least a radially inner ring and a grease dispenser device , accommodated into the grove of the radially outer ring wherein said dispenser device comprises a radially outer crown on which at least a radially inner protrusion is steadily fixed, the protrusion having a barrier function against the grease flow, characterized in that said at least a radially inner protrusion is a plurality of radial blades .
A check valve assembly comprising: an elongated valve body having an inlet port , an outlet port , and an internal channel communicating between said inlet port and said outlet port, each disposed about and generally aligned with a central longitudinal axis (L) of the valve body; said inlet port including an umbrella-type check valve disposed at the entrance to said internal channel and configured to obstruct reverse flow from said internal channel into said inlet port; said internal channel being defined by a first annular wall portion , aligned generally perpendicularly to said central longitudinal axis, which forms a valve seat for said umbrella-type check valve; and characterized by : said internal channel being further defined by a second annular wall portion , concave with respect to said internal channel along said central longitudinal axis, adjoining said first annular wall portion and running toward said outlet port; and said internal channel being further defined by a third annular wall portion , convex with respect to said internal channel along said central longitudinal axis, adjoining said second annular wall portion and running toward said outlet port; wherein at least said second and third annular wall portions form an essentially continuously curved, contiguous interior surface with respect to and along said central longitudinal axis. an elongated valve body having an inlet port , an outlet port , and an internal channel communicating between said inlet port and said outlet port, each disposed about and generally aligned with a central longitudinal axis (L) of the valve body; said inlet port including an umbrella-type check valve disposed at the entrance to said internal channel and configured to obstruct reverse flow from said internal channel into said inlet port; said internal channel being defined by a first annular wall portion , aligned generally perpendicularly to said central longitudinal axis, which forms a valve seat for said umbrella-type check valve; said internal channel being further defined by a second annular wall portion , concave with respect to said internal channel along said central longitudinal axis, adjoining said first annular wall portion and running toward said outlet port; and said internal channel being further defined by a third annular wall portion , convex with respect to said internal channel along said central longitudinal axis, adjoining said second annular wall portion and running toward said outlet port; wherein at least said second and third annular wall portions form an essentially continuously curved, contiguous interior surface with respect to and along said central longitudinal axis.
A method of wireless communications performed by a first base station that uses a first radio access technology, RAT, the method comprising: generating a first resource coordination information comprising one or more resource coordination bitmaps, each of the one or more resource coordination bitmaps indicating one or more shortened transmission time intervals, sTTIs, of a transmission time interval, TTI, assigned to the first RAT for communication, wherein the TTI comprises a plurality of sTTIs; transmitting a message including the first resource coordination information to a second base station that uses a second RAT; and receiving an acknowledgement of the message from the second base station, the acknowledgment including a second resource coordination information comprising one or more modified resource coordination bitmaps, each of the one or more modified resource coordination bitmaps indicating the one or more sTTIs of the TTI assigned to the first RAT for communication and one or more additional sTTIs of the TTI assigned to the second RAT for communication. generating a first resource coordination information comprising one or more resource coordination bitmaps, each of the one or more resource coordination bitmaps indicating one or more shortened transmission time intervals, sTTIs, of a transmission time interval, TTI, assigned to the first RAT for communication, wherein the TTI comprises a plurality of sTTIs; transmitting a message including the first resource coordination information to a second base station that uses a second RAT; and receiving an acknowledgement of the message from the second base station, the acknowledgment including a second resource coordination information comprising one or more modified resource coordination bitmaps, each of the one or more modified resource coordination bitmaps indicating the one or more sTTIs of the TTI assigned to the first RAT for communication and one or more additional sTTIs of the TTI assigned to the second RAT for communication.
An apparatus (200; 300) comprising: at least one processor; and at least one memory including computer program code; the at least one memory and the computer program code configured to, with the at least one processor, cause the apparatus at least to: determine whether at least one transport block has been successfully delivered to another apparatus (300; 200); and determine whether to use the at least one transport block to scramble at least one subsequent transport block based on whether the at least one transport block has been successfully delivered to the other apparatus, wherein using the at least one transport block to scramble at least one subsequent transport block comprises: using the at least one transport block to generate a scrambling sequence; and using the scrambling sequence to scramble the least one subsequent transport block. at least one processor; and at least one memory including computer program code; the at least one memory and the computer program code configured to, with the at least one processor, cause the apparatus at least to: determine whether at least one transport block has been successfully delivered to another apparatus (300; 200); and determine whether to use the at least one transport block to scramble at least one subsequent transport block based on whether the at least one transport block has been successfully delivered to the other apparatus, wherein using the at least one transport block to scramble at least one subsequent transport block comprises: using the at least one transport block to generate a scrambling sequence; and using the scrambling sequence to scramble the least one subsequent transport block. determine whether at least one transport block has been successfully delivered to another apparatus (300; 200); and determine whether to use the at least one transport block to scramble at least one subsequent transport block based on whether the at least one transport block has been successfully delivered to the other apparatus, wherein using the at least one transport block to scramble at least one subsequent transport block comprises: using the at least one transport block to generate a scrambling sequence; and using the scrambling sequence to scramble the least one subsequent transport block. using the at least one transport block to generate a scrambling sequence; and using the scrambling sequence to scramble the least one subsequent transport block.
An implantable cell culture device comprising two or more individual chambers each having an inner diameter of between 100 μm and 900 μm, wherein each individual chamber comprises a) a core comprising between 1 × 10 4 and 7.5 × 10 5 genetically engineered ARPE-19 cells that produce a therapeutically effective amount of one or more biologically active molecules, b) a semi-permeable membrane surrounding the core that permits the diffusion of the biologically active molecules there through, and c) one or more access ports, wherein the total diameter of the cell culture device is between 0.5 mm and 5.0 mm and the total internal volume of the cell culture device is between 2μl and 100μl. a) a core comprising between 1 × 10 4 and 7.5 × 10 5 genetically engineered ARPE-19 cells that produce a therapeutically effective amount of one or more biologically active molecules, b) a semi-permeable membrane surrounding the core that permits the diffusion of the biologically active molecules there through, and c) one or more access ports,