mhurhangee/ep-ind-claims huggingface dataset:
A cooking appliance comprising at least one gas valve and a pop-out type control knob assembly coupled to said gas valve, said knob assembly comprising a guiding body residing in a knob, a guiding element adapted to travel on a surface of said guiding body, and a spring located in between the guiding body and the knob; said guiding body comprising a number of track grooves (32, 33) forming a loop for travel of the guiding element, and a central ridge having at least two notches (37, 42) located oppositely to each other; the control knob assembly being adapted to stay in a first locking position by retraction of the knob and engagement of the guiding element into a backward notch, and to stay in a second locking position by extension of the knob and engagement of the guiding element into a frontal notch, characterized in that; said frontal notch comprises a recession adapted to engage with the guiding element, and further comprises a protrusion that is adapted to detent the guiding element and wherein said protrusion protrudes parallel to a longitudinal axis (x h) of the guiding body for applying a perpendicular detention when said guiding element abuts to the bordering side of said protrusion.
View system (100A, 100B) for a vehicle, comprising at least one image capture unit (10, 10A, 10B) for capturing image data of a portion around a vehicle, wherein the image capture unit (10, 10A, 10B) has an image sensor and an optical element, which has a distortion curve, wherein the image data dependent on the position on the image sensor are distorted in accordance with the distortion curve of the optical element, at least one image processing unit (20A, 20B) for processing the image data captured by the image capture unit (10, 10A, 10B), and at least one reproduction unit (30, 30A, 30B) for reproducing the image data processed by the image processing unit (20A, 20B), characterized in that the image processing unit (20A, 20B) is configured for taking at least one partial portion (12, 12') from the image data of the image sensor, wherein the geometry of the partial portion (12, 12') is dependent on the position of the partial portion (12, 12') on the image sensor. at least one image capture unit (10, 10A, 10B) for capturing image data of a portion around a vehicle, wherein the image capture unit (10, 10A, 10B) has an image sensor and an optical element, which has a distortion curve, wherein the image data dependent on the position on the image sensor are distorted in accordance with the distortion curve of the optical element, at least one image processing unit (20A, 20B) for processing the image data captured by the image capture unit (10, 10A, 10B), and at least one reproduction unit (30, 30A, 30B) for reproducing the image data processed by the image processing unit (20A, 20B), characterized in that the image processing unit (20A, 20B) is configured for taking at least one partial portion (12, 12') from the image data of the image sensor, wherein the geometry of the partial portion (12, 12') is dependent on the position of the partial portion (12, 12') on the image sensor.
A mobile floor cleaning robot comprising: a robot body defining a forward drive direction; a drive system supporting the robot body and configured to maneuver the robot over a floor surface; a cleaning system supported by the robot body; an imaging sensor disposed on the robot body; and a controller in communication with the drive system and the imaging sensor, characterized in that the controller is configured for: receiving a sequence of images of the floor surface, each image having an array of pixels; for each image, segmenting the image into color blobs by: color quantizing pixels of the image; determining a spatial distribution of each color of the image based on corresponding pixel locations; and for each image color, identifying areas of the image having a threshold spatial distribution for that color; and tracking a location of each color blob with respect to the imaging sensor across the sequence of images; and issuing a drive command to maneuver the robot based on the location (x,y) of one or more color blobs. a robot body defining a forward drive direction; a drive system supporting the robot body and configured to maneuver the robot over a floor surface; a cleaning system supported by the robot body; an imaging sensor disposed on the robot body; and a controller in communication with the drive system and the imaging sensor, characterized in that the controller is configured for: receiving a sequence of images of the floor surface, each image having an array of pixels; for each image, segmenting the image into color blobs by: color quantizing pixels of the image; determining a spatial distribution of each color of the image based on corresponding pixel locations; and for each image color, identifying areas of the image having a threshold spatial distribution for that color; and tracking a location of each color blob with respect to the imaging sensor across the sequence of images; and issuing a drive command to maneuver the robot based on the location (x,y) of one or more color blobs. receiving a sequence of images of the floor surface, each image having an array of pixels; for each image, segmenting the image into color blobs by: color quantizing pixels of the image; determining a spatial distribution of each color of the image based on corresponding pixel locations; and for each image color, identifying areas of the image having a threshold spatial distribution for that color; and color quantizing pixels of the image; determining a spatial distribution of each color of the image based on corresponding pixel locations; and for each image color, identifying areas of the image having a threshold spatial distribution for that color; and tracking a location of each color blob with respect to the imaging sensor across the sequence of images; and issuing a drive command to maneuver the robot based on the location (x,y) of one or more color blobs.
A method for wireless communication, comprising: selecting a shared wireless channel for use as a first backhaul channel (460, 560, 633, 635, 637) between a first wireless node and a second wireless node; sending, from the first wireless node, a first set of backhaul information on the first backhaul channel; and sending (450, 515, 613, 615, 617), from the first wireless node, a second set of backhaul information on a second backhaul channel established between the first wireless node and the second wireless node, and wherein the second backhaul channel is a more reliable and a higher latency legacy backhaul channel than the first backhaul channel, and wherein the first set of backhaul information comprises information requiring a low-latency channel and the second set of backhaul information comprises information suitable for a high-latency channel. selecting a shared wireless channel for use as a first backhaul channel (460, 560, 633, 635, 637) between a first wireless node and a second wireless node; sending, from the first wireless node, a first set of backhaul information on the first backhaul channel; and sending (450, 515, 613, 615, 617), from the first wireless node, a second set of backhaul information on a second backhaul channel established between the first wireless node and the second wireless node, and wherein the second backhaul channel is a more reliable and a higher latency legacy backhaul channel than the first backhaul channel, and wherein the first set of backhaul information comprises information requiring a low-latency channel and the second set of backhaul information comprises information suitable for a high-latency channel.
A scroll-type fluid machine comprising: a body unit which has a fixed scroll having a lap formed on an end plate thereof, a turning scroll having a lap formed on an end plate thereof to face the lap of the fixed scroll, and a body casing which accommodates the fixed scroll and the turning scroll; and a motor unit which has a drive shaft connected to the body unit to drive the body unit, a rotor rotating integrally with the drive shaft, a stator which imparts a rotational force to the rotor, and a motor casing which accommodates the drive shaft, the rotor and the stator, wherein a cooling fin (13, 14) is formed on a surface opposite to a surface on which the lap of the end plate is formed, on each of the fixed scroll and the turning scroll, characterized in that when a radial dimension of the end plate of the fixed scroll is defined as α, an axial dimension from a tip of a cooling fin of the fixed scroll to a tip of a cooling fin of the turning scroll is defined as lc, an axial dimension of the stator is defined as ls, and a radial dimension of the motor casing including the cooling fin (13, 14) is defined as Dm, a relation of α/16 + lc/4 ≤ ls ≤ α/4 + lc and a relation of α 2 /16 + αlc/4 ≤ Dmls ≤ α 2 /4 + αlc are satisfied. a body unit which has a fixed scroll having a lap formed on an end plate thereof, a turning scroll having a lap formed on an end plate thereof to face the lap of the fixed scroll, and a body casing which accommodates the fixed scroll and the turning scroll; and a motor unit which has a drive shaft connected to the body unit to drive the body unit, a rotor rotating integrally with the drive shaft, a stator which imparts a rotational force to the rotor, and a motor casing which accommodates the drive shaft, the rotor and the stator, wherein a cooling fin (13, 14) is formed on a surface opposite to a surface on which the lap of the end plate is formed, on each of the fixed scroll and the turning scroll, characterized in that when a radial dimension of the end plate of the fixed scroll is defined as α, an axial dimension from a tip of a cooling fin of the fixed scroll to a tip of a cooling fin of the turning scroll is defined as lc, an axial dimension of the stator is defined as ls, and a radial dimension of the motor casing including the cooling fin (13, 14) is defined as Dm, a relation of α/16 + lc/4 ≤ ls ≤ α/4 + lc and a relation of α 2 /16 + αlc/4 ≤ Dmls ≤ α 2 /4 + αlc are satisfied.
Process of preparing polyethylene in a loop reactor in the presence of antifouling agent comprising the steps of: a) feeding into said loop reactor diluent, monomers, optionally hydrogen, and optionally one or more co-monomers to produce a liquid phase; b) introducing antifouling agent into said loop reactor, c) introducing a catalyst into the liquid phase to produce a slurry; and d) polymerizing the monomers and optional co-monomers to form the polyethylene, characterized in that the antifouling agent is introduced in said loop reactor at most 3 hours before and at least 1 minute before introduction of the catalyst of step c) in the liquid phase, or the antifouling agent is introduced in said loop reactor at least 1 minute after and at most 1 hour after introduction of the catalyst of step c) in said liquid phase. a) feeding into said loop reactor diluent, monomers, optionally hydrogen, and optionally one or more co-monomers to produce a liquid phase; b) introducing antifouling agent into said loop reactor, c) introducing a catalyst into the liquid phase to produce a slurry; and d) polymerizing the monomers and optional co-monomers to form the polyethylene,
A solid-state imaging device having a layout in which one sharing unit (21, 81) includes an array of photodiodes (PD1 to PD8) of 2 pixels by 4xn pixels (where, n is a positive integer), respectively, in horizontal and vertical directions, wherein a layout in the one sharing unit comprises: a first structural portion and a second structural portion which are arranged in a vertical direction of a pixel portion, each of the first and second structural portions (23, 25) including four readout gate electrodes (221 to 228) and one floating diffusion (FD1, FD2) with respect to four photodiodes (PD1 to PD8); at least an amplification transistor which has at least a portion thereof disposed between the first structural portion and the second structural portion; a reset transistor; readout wirings (261 to 268) which are connected to the readout gate electrodes (221 to 228), respectively; a reset wiring which is connected to a reset gate electrode of the reset transistor; a connection wiring which is connected to the first floating diffusion, the second floating diffusion, an amplification gate electrode of the amplification transistor, and a source region of the reset transistor. a first structural portion and a second structural portion which are arranged in a vertical direction of a pixel portion, each of the first and second structural portions (23, 25) including four readout gate electrodes (221 to 228) and one floating diffusion (FD1, FD2) with respect to four photodiodes (PD1 to PD8); at least an amplification transistor which has at least a portion thereof disposed between the first structural portion and the second structural portion; a reset transistor; readout wirings (261 to 268) which are connected to the readout gate electrodes (221 to 228), respectively; a reset wiring which is connected to a reset gate electrode of the reset transistor; a connection wiring which is connected to the first floating diffusion, the second floating diffusion, an amplification gate electrode of the amplification transistor, and a source region of the reset transistor.
Forcing equipment meant for forcing piles, steel profiles and other elongated objects into the ground which forcing equipment comprises a body which can be attached to a working machine, a vibration device attached to the body with the help of damper cushions and moveable grip jaws adjusted to the mentioned vibration device in order to grip the object to be forced at least with a side grip, characterized in that the body comprises an upper part including an attachment arrangement, for attaching it to the working machine and side parts directed from the upper part downwards between which side parts the vibration device and grip jaws; (17, 18) can be attached through cassette comprising damping rubbers in which case the attachments comprise pin/hole attachments (11, 23, 14); (20, 8) or (21, 8) which can be opened by detaching the mentioned pins (11, 20, 21).
A sheet-shaped insulating sheet of a resin composition containing an epoxy resin, a curing agent and an inorganic filler, wherein the epoxy resin has a naphthalene structure, the inorganic filler is hexagonal boron nitride, and is contained in an amount of 70 to 85 vol % in the entire resin composition, wherein the sheet is produced by molding the resin composition using a roll press.
A prosthetic system for mimicking the natural movement of an ankle, the prosthetic system comprising: a lower limb prosthesis comprising a lower limb member operatively coupled to a foot unit and movable in relation thereto by a pivoting motion; an actuator (116, 316) configured to mimic the motion of an ankle by adjusting the angle between the lower limb member and the foot unit; a sensor module configured to measure variables relating to the prosthesis and environmental or terrain variables wherein the variables include one or more of the following: characteristics of the ground surface, the angle of the ground surface, the air temperature, and wind resistance; and a control system configured to process data received from the sensor module and control the operation of the actuator to mimic natural ankle movement. a lower limb prosthesis comprising a lower limb member operatively coupled to a foot unit and movable in relation thereto by a pivoting motion; an actuator (116, 316) configured to mimic the motion of an ankle by adjusting the angle between the lower limb member and the foot unit; a sensor module configured to measure variables relating to the prosthesis and environmental or terrain variables wherein the variables include one or more of the following: characteristics of the ground surface, the angle of the ground surface, the air temperature, and wind resistance; and a control system configured to process data received from the sensor module and control the operation of the actuator to mimic natural ankle movement.
An electronic device having a base module and an electronic module that can be plugged onto the base module in a detachable manner, wherein the base module comprises an insulating-material housing having a latching base for latching the base module onto a carrier rail and plug contacts (7, 8) on the side walls, and wherein the electronic module comprises an insulating-material housing and when plugged onto the base module can be connected to allocated plug contacts (7, 8) of the base module, and wherein the base module and the electronic module have interacting latching elements for latching the base module and the electronic module to one another when the electronic module is plugged onto the base module, characterized in that a latching element of the electronic module has an actuating lug on a second end face of the electronic device and that the electronic module has a catch lug on its first end face of the electronic device that lies opposite the second end face of the electronic device, and that the electronic module and the base module have mutually interacting linear guides (35a, 35b, 36a, 36b), wherein the electronic module can be held on the base module by the linear guides (35a, 35b, 36a, 36b) in a linear displaceable manner.
A cutting insert comprising a top face and a bottom face parallel to the top face, wherein four side faces and four corner faces extend between the top and bottom faces, wherein at least one cutting edge (4, 4') is formed at an intersection of the top face and at least one of the corner faces and two of the side faces connected to the corner face, the top face forming a rake surface, while at least an upper part of the corner face and the two side faces forms a relief surface (5, 5') connected to the cutting edge (4, 4'), characterized in that in a plan view on the top face, the cutting insert is forming a basic shape of a parallelogram having two diagonally opposed corners including an acute angle (ε 1) between 70° and 85°, wherein at least one of the acute angled corners comprises the corner face providing a corner cutting edge of said cutting edge (4, 4'), that the relief surface (5, 5') is forming an obtuse inner angle (θ) with the top face and that a chip groove is formed in the top face adjacent to and along the cutting edge (4, 4').
Polyvinyl chloride composition, where - a PVC resin of the composition comprising one or more resin component(s), with molecular weight distribution with a number average of M N = from 60 kDa to M N = 70 kDa and a weight average of M W = from 114 kDa to M w = 124 kDa, and where - the chlorine content of the entire composition is from 56% to 62%. - a PVC resin of the composition comprising one or more resin component(s), with molecular weight distribution with a number average of M N = from 60 kDa to M N = 70 kDa and a weight average of M W = from 114 kDa to M w = 124 kDa, and where - the chlorine content of the entire composition is from 56% to 62%.
An RFID system comprising: an RFID tag including a first magnetic field antenna; an article having a cylindrical shape and housing the RFID tag in a random direction; a conveying path conveying the article; a reader/writer including a second magnetic field antenna communicating with the first magnetic field antenna through a magnetic field coupling and disposed along the conveying path; the reader/writer is one of a plurality of readers/writers arranged along the conveying direction, and an antenna controller controlling the plurality of readers/writers, wherein while the conveying path conveys the RFID tag such that an opening plane of the second magnetic field antenna and the RFID tag face each other, the second magnetic field antenna emits a magnetic flux, and wherein a distance between the RFID tag and the second magnetic field antenna in a normal direction of the second magnetic field antenna is smaller than an opening diameter (Lr) of the second magnetic field antenna (a), and the antenna controller provides control such that a magnetic flux is emitted with a time lag from the plurality of readers/writers adjacent to each other in the conveying direction. an RFID tag including a first magnetic field antenna; an article having a cylindrical shape and housing the RFID tag in a random direction; a conveying path conveying the article; a reader/writer including a second magnetic field antenna communicating with the first magnetic field antenna through a magnetic field coupling and disposed along the conveying path; the reader/writer is one of a plurality of readers/writers arranged along the conveying direction, and an antenna controller controlling the plurality of readers/writers, wherein while the conveying path conveys the RFID tag such that an opening plane of the second magnetic field antenna and the RFID tag face each other, the second magnetic field antenna emits a magnetic flux, and wherein a distance between the RFID tag and the second magnetic field antenna in a normal direction of the second magnetic field antenna is smaller than an opening diameter (Lr) of the second magnetic field antenna (a), and the antenna controller provides control such that a magnetic flux is emitted with a time lag from the plurality of readers/writers adjacent to each other in the conveying direction.
Sensor device for measuring a variable characterizing a rotational state of a shaft part of a motor vehicle, in particular of a steering shaft of the motor vehicle, having a mount which can be connected to the shaft part of the motor vehicle, and having a magnetic stator part (14, 15) which is arranged on the mount and is designed to direct magnetic flux from a magnet to a magnet sensor, wherein the stator part (14, 15) has an annular base element (18, 19) which extends in the radial direction, and a multiplicity of tooth elements (20, 21) which protrude from the annular base element (18, 19) in the axial direction and are arranged distributed in the circumferential direction, wherein, at least in the axial direction the stator part (14, 15) is secured to the mount via the tooth elements (20, 21), characterized in that in the axial direction the stator part (14, 15) is secured to the mount via respective axial free ends (26, 27) of the tooth elements (20, 21), wherein the axial free ends (26, 27) of the tooth elements (20, 21) are bent over and engage an axial edge region (7, 8) of the mount in order to axially attach the stator part (14, 15) to the mount.
A radiopaque poly(ester urea) polymer comprising two or more amino acid-based monomer segments containing at least one amino acid residue functionalized to include a radiopaque atom.
A rubber composition comprising 20 parts by mass to 100 parts by mass of carbon black combined with 100 parts by mass of a rubber component, the carbon black having a CTAB surface area of 60 m 2 /g to 105 m 2 /g, a 24M4DBP oil absorption of 70 cm 3 /100 g to 105 cm 3 /100 g, a N 2 SA/IA of 0.95 or less, and satisfying Expression. TINT % + 0.4 × 24 ⁢ M ⁢ 4 ⁢ DBP oil absorption cm 3 / 100 g - 0.5 × CTAB surface area m 2 / g > 106