mhurhangee/patent-ind-claim-en huggingface dataset:
A method comprising: placing a first device within a predetermined distance of a second device; and the first device communicating with the second device via near field talk on a pairing channel of the second device to pair the first device with the second device, wherein the pairing channel of the second device_is different from a plurality of working channels of the second device, and wherein the first device tunes to the pairing channel of the second device without scanning other working channels of the second device; after the first device communicates with the second device via the near field talk on the pairing channel of the second device, installing the first device at a desired location in a monitored region; and after installation, the first device executing a testing sequence by transmitting a test signal via a wireless network and receiving a responsive test signal from the second device approving or rejecting the first device according to respectively whether the first device was paired or not paired with the second device via the near field talk on the pairing channel of the second device and an RF signal strength of a path of the test signal, wherein the first device and the second device operate in a low power mode while executing the testing sequence, and wherein, responsive to the responsive test signal approving the first device, the first device and the second device operate in a normal mode and communicate via the plurality of working channels of the second device. placing a first device within a predetermined distance of a second device; and the first device communicating with the second device via near field talk on a pairing channel of the second device to pair the first device with the second device, wherein the pairing channel of the second device_is different from a plurality of working channels of the second device, and wherein the first device tunes to the pairing channel of the second device without scanning other working channels of the second device; after the first device communicates with the second device via the near field talk on the pairing channel of the second device, installing the first device at a desired location in a monitored region; and after installation, the first device executing a testing sequence by transmitting a test signal via a wireless network and receiving a responsive test signal from the second device approving or rejecting the first device according to respectively whether the first device was paired or not paired with the second device via the near field talk on the pairing channel of the second device and an RF signal strength of a path of the test signal, wherein the first device and the second device operate in a low power mode while executing the testing sequence, and wherein, responsive to the responsive test signal approving the first device, the first device and the second device operate in a normal mode and communicate via the plurality of working channels of the second device.
Electric cooker comprising: - an outer casing ; - an upper cover , which upper cover is installed on the outer casing ; - an inner container installed inside the outer casing ; - a steaming basket installed inside the inner container , and under this steaming basket is located an opening mechanism facing the wall of the bottom of the inner container and/or situated in the extension of the side wall of the inner container ; the steaming basket is provided with a permeable zone and includes a filling chamber situated on this permeable zone; an opening space surrounded by the opening mechanism is connected to the filling chamber by way of the permeable zone; the interval between the outer surface of the steaming basket and the surface of the inner side wall of the inner container forms a compartment , which compartment is connected to the filling chamber by way of the opening space; the upper cover and the upper portion of the filling chamber are hermetically put in contact with; characterised in that the electric cooker comprises an element for regulating the pressure connected to the filling chamber , which element for regulating pressure is intended to regulate the pressure inside the filling chamber . - an outer casing ; - an upper cover , which upper cover is installed on the outer casing ; - an inner container installed inside the outer casing ; - a steaming basket installed inside the inner container , and under this steaming basket is located an opening mechanism facing the wall of the bottom of the inner container and/or situated in the extension of the side wall of the inner container ; the steaming basket is provided with a permeable zone and includes a filling chamber situated on this permeable zone; an opening space surrounded by the opening mechanism is connected to the filling chamber by way of the permeable zone; the interval between the outer surface of the steaming basket and the surface of the inner side wall of the inner container forms a compartment , which compartment is connected to the filling chamber by way of the opening space; the upper cover and the upper portion of the filling chamber are hermetically put in contact with;
A device for the automated removal of workpieces arranged in a container , comprising a detection unit for detecting the workpieces and a gripper for picking up and removing the workpieces from the container , and a controller for analysing the data from the detection unit, planning the path and controlling the gripper, wherein the gripper can be moved by means of an area gantry having at least two and preferably three linear axes and at least two additional rotational axes . and a controller for analysing the data from the detection unit, planning the path and controlling the gripper, wherein the gripper can be moved by means of an area gantry having at least two and preferably three linear axes and at least two additional rotational axes .
A method performed by a user equipment for indicating uplink data, the method comprising: determining a data volume indicator, DVI, representing an amount of uplink data for transmission by the user equipment; encoding the DVI in a media access control, MAC, protocol data unit. PDU, wherein encoding the DVI in the MAC PDU comprises: encoding the DVI with a common control channel, CCCH, MAC service data unit (SDU); and encoding a logical channel identifier, LCID, value in a MAC subheader of the MAC PDU that indicates that the MAC PDU includes the CCCH MAC SDU and the DVI; and transmitting the MAC PDU to a network node, characterised in that the DVI includes an amount of data for transmission that is not yet associated with a logical channel. determining a data volume indicator, DVI, representing an amount of uplink data for transmission by the user equipment; encoding the DVI in a media access control, MAC, protocol data unit. PDU, wherein encoding the DVI in the MAC PDU comprises: encoding the DVI with a common control channel, CCCH, MAC service data unit (SDU); and encoding a logical channel identifier, LCID, value in a MAC subheader of the MAC PDU that indicates that the MAC PDU includes the CCCH MAC SDU and the DVI; and encoding the DVI with a common control channel, CCCH, MAC service data unit (SDU); and encoding a logical channel identifier, LCID, value in a MAC subheader of the MAC PDU that indicates that the MAC PDU includes the CCCH MAC SDU and the DVI; and transmitting the MAC PDU to a network node, characterised in that the DVI includes an amount of data for transmission that is not yet associated with a logical channel.
A method of estimating, by a handheld device, a future input value in a real-time system, characterized in that the method comprises the following steps: - computing an input value from an information captured by at least a first sensor embedded in said device, the computed input value indicating a position of the face of the user relatively to the handheld device; - storing the computed input value in an history of computed input values on said device; - estimating the future input value from the history of computed input values based on a linear model; wherein the method further comprises: - estimating a perturbing factor component, perturbing the linearity of the computed input values, from an information captured by at least a second sensor embedded in said device, the second sensor giving an information on the movement of the handheld device; - determining a modified history of input values by cancelling said estimated perturbing factor component from each input value stored in said history of computed input values; and wherein: - the future input value is estimated from the modified history of input values. - computing an input value from an information captured by at least a first sensor embedded in said device, the computed input value indicating a position of the face of the user relatively to the handheld device; - storing the computed input value in an history of computed input values on said device; - estimating the future input value from the history of computed input values based on a linear model; wherein the method further comprises: - estimating a perturbing factor component, perturbing the linearity of the computed input values, from an information captured by at least a second sensor embedded in said device, the second sensor giving an information on the movement of the handheld device; - determining a modified history of input values by cancelling said estimated perturbing factor component from each input value stored in said history of computed input values; and wherein: - the future input value is estimated from the modified history of input values. - estimating a perturbing factor component, perturbing the linearity of the computed input values, from an information captured by at least a second sensor embedded in said device, the second sensor giving an information on the movement of the handheld device; - determining a modified history of input values by cancelling said estimated perturbing factor component from each input value stored in said history of computed input values; and wherein: - the future input value is estimated from the modified history of input values. - the future input value is estimated from the modified history of input values.
Wing for an aircraft comprising a main wing structure fixedly attachable to a body of an aircraft, at least one high lift body movably supported at the main wing structure , a drive unit coupled with the main wing structure and the at least one high lift body and adapted to move the at least one high lift body relative to the main wing structure in a substantial chordwise direction between a retracted position and at least one extended position, and a sealing device coupled with the at least one high lift body and the main wing structure , wherein the at least one high lift body comprises at least one outer edge facing the main wing structure , which at least one outer edge creates a gap to the main wing structure in the at least one extended position, wherein the sealing device comprises a flexible sealing body , which seals the gap between the at least one high lift body and the main wing structure in extended positions of the at least one high lift body , and wherein the sealing body comprises a plurality of flat longitudinal stiffening elements attached to an inner side of the sealing body at a distance to each other and extending along a spanwise direction.
A stator for an electric generator , in particular for a wind turbine , the stator comprising: an inner frame structure having an annular shape formed around a rotational axis (Y) of the electric generator , the inner frame structure comprising an inner ring coaxial with the rotational axis (Y); and an outer frame structure formed around the rotational axis (Y) and surrounding the inner frame structure , the outer frame structure being radially distanced from the inner frame structure and comprising two outer rings , which are distanced from one another along the rotational axis (Y), wherein the stator comprises a plurality of spokes distributed around the rotational axis (Y) and connecting the inner frame structure and the outer frame structure , wherein the plurality of spokes are fixed to the internal ring and to the outer rings , characterized in that each spoke has a divergent shape extending from a vertex fixed to the inner ring and diverges towards the two outer rings . an inner frame structure having an annular shape formed around a rotational axis (Y) of the electric generator , the inner frame structure comprising an inner ring coaxial with the rotational axis (Y); and an outer frame structure formed around the rotational axis (Y) and surrounding the inner frame structure , the outer frame structure being radially distanced from the inner frame structure and comprising two outer rings , which are distanced from one another along the rotational axis (Y), wherein the stator comprises a plurality of spokes distributed around the rotational axis (Y) and connecting the inner frame structure and the outer frame structure , wherein the plurality of spokes are fixed to the internal ring and to the outer rings , wherein the stator comprises a plurality of spokes distributed around the rotational axis (Y) and connecting the inner frame structure and the outer frame structure , wherein the plurality of spokes are fixed to the internal ring and to the outer rings ,
A breathing tube assembly, comprising: a connector and a breathing tube , the breathing tube having a first end and a second end, wherein the first end is permanently or removably coupled to the connector in a substantially non-rotatable manner and the second end is configured to be attached to a patient interface ; wherein the connector is configured to couple the breathing tube to an outlet of a flow generator ; and characterized in that the assembly further comprises a swivel elbow that is rotatably coupled to the connector of the breathing tube and that engages a portion of the breathing tube , the swivel elbow comprising a curved surface portion that guides the portion of the breathing tube into a curved shape, wherein the swivel elbow is rotatable relative to the connector and is also rotatable relative to the portion of the breathing tube such that the swivel elbow can be rotated relative to the connector to vary a direction in which the breathing tube extends relative to the connector . a connector and a breathing tube , the breathing tube having a first end and a second end, wherein the first end is permanently or removably coupled to the connector in a substantially non-rotatable manner and the second end is configured to be attached to a patient interface ; wherein the connector is configured to couple the breathing tube to an outlet of a flow generator ; and characterized in that the assembly further comprises a swivel elbow that is rotatably coupled to the connector of the breathing tube and that engages a portion of the breathing tube , the swivel elbow comprising a curved surface portion that guides the portion of the breathing tube into a curved shape, wherein the swivel elbow is rotatable relative to the connector and is also rotatable relative to the portion of the breathing tube such that the swivel elbow can be rotated relative to the connector to vary a direction in which the breathing tube extends relative to the connector .
A detergent composition comprising: (i) from 0.1 to 10 wt.%, preferably from 0.2 to 9 wt.%, more preferably from 0.25 to 8, even more preferably from 0.5 to 6 wt.%, most preferably from 1 to 5 wt.% of a soil release polymer; and, (ii) from 0.0005 to 2.5 wt.%, preferably from 0.005 to 2 wt.%, more preferably from 0.01 to 1 wt.% of a non-fungal lipase enzyme, wherein the soil release polymer is a polyester based soil released polymer, wherein the polyester soil release polymer is a polyethylene and/or polypropylene terephthalate based soil release polymer; and, wherein the non-fungal lipase enzyme is a bacterial lipase enzyme derived from Burkholderia cepacia, Pseudomonas fluorescence or Psychromonas ingrahamii. (i) from 0.1 to 10 wt.%, preferably from 0.2 to 9 wt.%, more preferably from 0.25 to 8, even more preferably from 0.5 to 6 wt.%, most preferably from 1 to 5 wt.% of a soil release polymer; and, (ii) from 0.0005 to 2.5 wt.%, preferably from 0.005 to 2 wt.%, more preferably from 0.01 to 1 wt.% of a non-fungal lipase enzyme, wherein the soil release polymer is a polyester based soil released polymer, wherein the polyester soil release polymer is a polyethylene and/or polypropylene terephthalate based soil release polymer; and, wherein the non-fungal lipase enzyme is a bacterial lipase enzyme derived from Burkholderia cepacia, Pseudomonas fluorescence or Psychromonas ingrahamii.
Cover for a bearing housing , in particular intended to be mounted on machinery for the food industry, comprising: - an end wall configured to be transverse to an axis (X) of the bearing housing ; - an annular side wall which extends transversely with respect to the end wall ; and - an engaging portion configured to engage the bearing housing , wherein the engaging portion is formed on one end of the side wall opposite to the end wall ; - a through-opening formed through the end wall configured to allow the passage of a moving shaft ; - a reinforcing ring rigidly joined to and integral with the end wall and arranged around the through-opening ; and - a sealing element mounted on the through-opening and sealingly engaged by the moving shaft , wherein the reinforcing ring comprises a cylindrical partition configured to be coaxial with the axis (X) of the bearing housing , characterised in that the cylindrical partition extends along the axis (X) from the end wall towards the inside of the cover and comprises: - a seat for housing the sealing element , the seat being delimited radially towards the inside by a conical surface ; and - a plurality of reinforcing ribs rigidly joined to the cylindrical partition . - an end wall configured to be transverse to an axis (X) of the bearing housing ; - an annular side wall which extends transversely with respect to the end wall ; and - an engaging portion configured to engage the bearing housing , wherein the engaging portion is formed on one end of the side wall opposite to the end wall ; - a through-opening formed through the end wall configured to allow the passage of a moving shaft ; - a reinforcing ring rigidly joined to and integral with the end wall and arranged around the through-opening ; and - a sealing element mounted on the through-opening and sealingly engaged by the moving shaft , wherein the reinforcing ring comprises a cylindrical partition configured to be coaxial with the axis (X) of the bearing housing , characterised in that the cylindrical partition extends along the axis (X) from the end wall towards the inside of the cover and comprises: - a seat for housing the sealing element , the seat being delimited radially towards the inside by a conical surface ; and - a plurality of reinforcing ribs rigidly joined to the cylindrical partition . - a seat for housing the sealing element , the seat being delimited radially towards the inside by a conical surface ; and - a plurality of reinforcing ribs rigidly joined to the cylindrical partition .
Control unit for controlling turn lights in a vehicle , the control unit comprising: a communication interface , and a lighting controller coupled to the communication interface and configured to retrieve via the communication interface information about the vehicle surroundings and optionally additionally about the vehicle movement, wherein the lighting controller is further configured to control the turn lights of the vehicle based on the retrieved information about the vehicle surroundings and optionally additionally about the vehicle movement, characterized in that the information about the vehicle surroundings comprises road configuration information about the number of lanes of the road as stored in a navigation system or as detected by a camera system . a communication interface , and a lighting controller coupled to the communication interface and configured to retrieve via the communication interface information about the vehicle surroundings and optionally additionally about the vehicle movement, wherein the lighting controller is further configured to control the turn lights of the vehicle based on the retrieved information about the vehicle surroundings and optionally additionally about the vehicle movement, characterized in that the information about the vehicle surroundings comprises road configuration information about the number of lanes of the road as stored in a navigation system or as detected by a camera system .
An optically active pyranochromenylphenol compound of the following Chemical Formula (II), a pharmaceutically acceptable salt, or a solvate thereof: wherein R 1 is ethyl, n-propyl, isopropyl, n-butyl, 2-methylpropyl, n-pentyl, 2-methylbutyl, 3-methylbutyl, 2-ethylpropyl, n-hexyl, 2-methylpentyl, 3-methylpentyl, 4-methylpentyl, or 2-ethylbutyl; R 2 is a hydrogen atom, methyl, or methoxy; and R 3 and R 4 are each methyl. R 1 is ethyl, n-propyl, isopropyl, n-butyl, 2-methylpropyl, n-pentyl, 2-methylbutyl, 3-methylbutyl, 2-ethylpropyl, n-hexyl, 2-methylpentyl, 3-methylpentyl, 4-methylpentyl, or 2-ethylbutyl; R 2 is a hydrogen atom, methyl, or methoxy; and R 3 and R 4 are each methyl.
An airfoil comprising: a cooling passage ; at least one disk body disposed on an inner wall of the cooling passage and configured to reduce a flow cross-sectional area of the cooling passage to increase a fluid pressure of cooling fluid flowing through the cooling passage; and at least one through-hole formed in each of the at least one disk body such that the cooling fluid flows through the at least one through-hole and forms a vortex on a downstream side of the at least one through-hole; characterized in that each of the at least one through-hole is formed in a direction inclined at a predetermined angle with respect to a radial direction of the airfoil such that the cooling fluid diffuses in a vortex shape toward and collides with the inner wall of the cooling passage . a cooling passage ; at least one disk body disposed on an inner wall of the cooling passage and configured to reduce a flow cross-sectional area of the cooling passage to increase a fluid pressure of cooling fluid flowing through the cooling passage; and at least one through-hole formed in each of the at least one disk body such that the cooling fluid flows through the at least one through-hole and forms a vortex on a downstream side of the at least one through-hole; characterized in that each of the at least one through-hole is formed in a direction inclined at a predetermined angle with respect to a radial direction of the airfoil such that the cooling fluid diffuses in a vortex shape toward and collides with the inner wall of the cooling passage .
- A refrigerator comprising a body ; at least one fresh food or freezing compartment wherein foodstuffs and beverages are placed; at least one door which is pivotably mounted to the opposite right or left vertical edges of the front side of the body by means of hinges and which provides access into the compartment ; a handle which enables the door to be opened/closed by the user; a plastic inner liner which covers the inner surface of the door facing the compartment ; a door gasket which provides leak-proofing between the outer environment and the compartment ; at least one door shelf which is positioned on the inner liner of the door , and two door dikes which extend on the inner liner in the vertical direction at both sides of the door shelves and which protrude from the door into the compartment , characterized by at least one movable door dike which can be moved outwards so as to move away from the door shelf and inwards so as to get close to the door shelf on the inner liner of the door by means of a movement mechanism which is triggered by means of a control button or a sensor.