mhurhangee/ep-ind-claims huggingface dataset:
A tamper-evident closure for a container, the tamper-evident closure comprising: a first portion (25, 30, 37) including inner and outer parts (25, 30); and a second portion (20, 36); the outer part is rotatable relative to the inner part in a first direction from a first position in which at least part of the first and second portions (25, 30, 37; 20, 36) are adjacent each other to a second position in which there is a gap therebetween, the first portion (25, 30, 37) comprises locking means for irreversibly locking the tamper-evident closure in the second position upon first opening so that the gap cannot be closed, in which the first portion (25, 30, 37) comprises a compressible stopper for sealing the second portion (20, 36) and/or the container. a first portion (25, 30, 37) including inner and outer parts (25, 30); and a second portion (20, 36); the outer part is rotatable relative to the inner part in a first direction from a first position in which at least part of the first and second portions (25, 30, 37; 20, 36) are adjacent each other to a second position in which there is a gap therebetween, the first portion (25, 30, 37) comprises locking means for irreversibly locking the tamper-evident closure in the second position upon first opening so that the gap cannot be closed, in which the first portion (25, 30, 37) comprises a compressible stopper for sealing the second portion (20, 36) and/or the container.
A method comprising: - determining at least one delivery path (701, 817, 901, 903, 905) to at least one delivery surface (703, 823), wherein the at least one delivery path represents at least one three-dimensional variable width path along which at least one aerial delivery vehicle can access the at least one delivery surface (703, 823, 929, 931); - transecting the at least one delivery path with one or more planar surfaces; - determining one or more shapes (715-725, 801-811, 911-927) on the one or more planar surfaces, wherein the one or more shapes (715-725, 801-811, 911-927) represent one or more intersections of the at least one delivery path and the one or more planar surfaces; and - constructing at least one delivery path data object comprising at least one ordered list of the one or more shapes (715-725, 801-811, 911-927) to represent the at least one delivery path (701, 817, 901, 903, 905). - determining at least one delivery path (701, 817, 901, 903, 905) to at least one delivery surface (703, 823), wherein the at least one delivery path represents at least one three-dimensional variable width path along which at least one aerial delivery vehicle can access the at least one delivery surface (703, 823, 929, 931); - transecting the at least one delivery path with one or more planar surfaces; - determining one or more shapes (715-725, 801-811, 911-927) on the one or more planar surfaces, wherein the one or more shapes (715-725, 801-811, 911-927) represent one or more intersections of the at least one delivery path and the one or more planar surfaces; and - constructing at least one delivery path data object comprising at least one ordered list of the one or more shapes (715-725, 801-811, 911-927) to represent the at least one delivery path (701, 817, 901, 903, 905).
A communications network comprising a plurality of network segments, each of the plurality of network segments comprising a segment management module, one or more routers and a plurality of communications links, the communications links connecting each router to one or more other routers; and a global network management module, the global network management module being in communication with a network management database wherein, in use, the global network management module is configured to: a) analyse information received from one or more of the plurality of segment management modules; b) determine the probability that a traffic event will occur, based on the information received in step a); c) reconfigure the communications network if it decides that the traffic event will occur, the network reconfiguration occurring before the occurrence of the traffic event. a) analyse information received from one or more of the plurality of segment management modules; b) determine the probability that a traffic event will occur, based on the information received in step a); c) reconfigure the communications network if it decides that the traffic event will occur, the network reconfiguration occurring before the occurrence of the traffic event.
A method for conveying information, comprising acts of: A) controlling at least one lighting condition generated by a lighting device comprising three different colored LEDs; by B) receiving at least two information signals representing information from at least one of a data base, a network, the World Wide Web, and a software program; and C) converting the at least two information signals into the at least one lighting control signal, wherein the controlling of act A) includes an act of: controlling at least a color of the light generated by the lighting device in response to the at least one lighting control signal so as to convey information via at least the color of the light by independently controlling the three different colored LEDs so as to control at least two parameters of the color, which parameters are a hue, a saturation, and an intensity of the light generated by the lighting device, such that a first information signal is represented by a first parameter and a second information signal is represented by a second parameter different from the first parameter, and to thereby convey information. A) controlling at least one lighting condition generated by a lighting device comprising three different colored LEDs; by B) receiving at least two information signals representing information from at least one of a data base, a network, the World Wide Web, and a software program; and C) converting the at least two information signals into the at least one lighting control signal, wherein the controlling of act A) includes an act of: controlling at least a color of the light generated by the lighting device in response to the at least one lighting control signal so as to convey information via at least the color of the light by independently controlling the three different colored LEDs so as to control at least two parameters of the color, which parameters are a hue, a saturation, and an intensity of the light generated by the lighting device, such that a first information signal is represented by a first parameter and a second information signal is represented by a second parameter different from the first parameter, and to thereby convey information. controlling at least a color of the light generated by the lighting device in response to the at least one lighting control signal so as to convey information via at least the color of the light by independently controlling the three different colored LEDs so as to control at least two parameters of the color, which parameters are a hue, a saturation, and an intensity of the light generated by the lighting device, such that a first information signal is represented by a first parameter and a second information signal is represented by a second parameter different from the first parameter, and to thereby convey information.
Method for producing a three-dimensional object made of solidifiable material which either exists in the initial state as fluid or can be liquefied having the following steps: - providing the solidifiable material in the fluid phase, or plasticising the solidifiable material into the fluid phase, and introducing the solidifiable material into at least one pressurised material store (18, 18'), - generatively discharging the solidifiable material from the material store from an outlet opening of at least one discharge unit (12, 12') which is part of an injection moulding plasticising unit, towards an object carrier for the three-dimensional object to be produced, the object carrier or the three-dimensional object on the one hand, and the discharge unit (12, 12') on the other hand being movable relative to one other spatially, characterised in that, at the same time as the discharge of the solidifiable material, at least one continuous fibre element (61, 61 ") is fed at a spacing from the outlet opening for the solidifiable material to the object, and is fixed or tensioned in the discharged solidifiable material at two points of the three-dimensional object to be produced which are at a spacing from one another, and is then embedded in the discharged material. - providing the solidifiable material in the fluid phase, or plasticising the solidifiable material into the fluid phase, and introducing the solidifiable material into at least one pressurised material store (18, 18'), - generatively discharging the solidifiable material from the material store from an outlet opening of at least one discharge unit (12, 12') which is part of an injection moulding plasticising unit, towards an object carrier for the three-dimensional object to be produced, the object carrier or the three-dimensional object on the one hand, and the discharge unit (12, 12') on the other hand being movable relative to one other spatially,
A steady rest for a machine tool with a machine bed for guiding a rotationally symmetrical workpiece, having - a base body for support upon the machine bed, - at least one linear drive transverse to the machine bed, with which two drive bodies (S13, S14) can be moved in the opposite direction on the base body, - two shearing levers (L1, L2) which are arranged transversely to the machine bed in the shape of a V, wherein in each case their one end (L14, L24) is pivotably held on the base body and whose other end (L11, L21) has a support (L13, L23) for the workpiece, and - two support levers (L3, L4), which are respectively pivotably held on their one end (L33, L43) on a drive body (S13, S14) and on whose other end (L31, L41) are pivotably held on a shearing lever (L1, L2) in the region of a support (L13, L23), so that the distance between the supports (L13, L23) can be varied by of scissors-like pivoting of the shearing lever (L1, L2) by means of displacing the drive bodies (S13, S14). - a base body for support upon the machine bed, - at least one linear drive transverse to the machine bed, with which two drive bodies (S13, S14) can be moved in the opposite direction on the base body, - two shearing levers (L1, L2) which are arranged transversely to the machine bed in the shape of a V, wherein in each case their one end (L14, L24) is pivotably held on the base body and whose other end (L11, L21) has a support (L13, L23) for the workpiece, and - two support levers (L3, L4), which are respectively pivotably held on their one end (L33, L43) on a drive body (S13, S14) and on whose other end (L31, L41) are pivotably held on a shearing lever (L1, L2) in the region of a support (L13, L23), so that the distance between the supports (L13, L23) can be varied by of scissors-like pivoting of the shearing lever (L1, L2) by means of displacing the drive bodies (S13, S14).
A lubricating oil composition comprising from 20 to 75 wt% of a polyalphaolefm fluid having a kinematic viscosity at 100°C of between 2 to 10 mm 2 /s, 5 to 40 wt% of a polyalphaolefm fluid having a kinematic viscosity at 100°C of between 150 to 3,000 mm 2 /s, 10 to 40 wt% of a polyalphaolefin fluid having a kinematic viscosity at 100°C of between 20 to 100 mm 2 /s, 5 to 20 wt% of one or more esters of dibasic acids with mono alkanols having a kinematic viscosity at 100°C of between 2 to 5 mm 2 /s and a pour point of at least -25°C, all wt% being based on the total lubricant composition, the lubricating oil composition further containing at least one gear oil performance additive and being characterized by having a kinematic viscosity at 100°C by ASTM D-445-5 of between 9 and 12.5 mm 2 /s and exhibiting a traction coefficient value, measured as the 16N/100°C/30 SSR value by the mini traction machine, of 0.0197 or less, a Brookfield viscosity at -40°C by ASTM D-2983-31 of 26,000 cP or less, and a CCS viscosity at -25°C by ASTM D-5293-5 of 4200 cP or less, a flash point by ASTM D-97 of 220°C or higher and a NOACK volatility by ASTM D-5800 of 15% or less.
A control information transmission method, wherein the method comprises: determining, by a network device, a segmentation method for segmentation of a first time-frequency resource comprising n third time units into m second time units in a time domain based on at least one of a time domain length of the first time-frequency resource, a time domain segmentation granularity of the first time-frequency resource, and a time-frequency region size of the first time-frequency resource, wherein n=k ∗ m+r, m, n, k and r are a positive integers, m is greater than 1, r is less than m, each second time unit of the first r second time units correspond to k+1 third time units, and each second time unit of the last m-r second time units correspond to k third time units; notifying, by the network device via radio resource control, RRC, signaling, the segmentation method to a terminal device; determining, by the network device, first indication information, wherein the first indication information comprises m bits and is used to indicate whether information transmission on a first time-frequency resource is affected by preemption, and wherein each of the m bits is in a one-to-one correspondence with the m second time units of the first time-frequency resource and is used to indicate whether information transmission on the respective second time unit in the first time-frequency resource is affected; and sending, by the network device, the first indication information through a physical downlink control channel. determining, by a network device, a segmentation method for segmentation of a first time-frequency resource comprising n third time units into m second time units in a time domain based on at least one of a time domain length of the first time-frequency resource, a time domain segmentation granularity of the first time-frequency resource, and a time-frequency region size of the first time-frequency resource, wherein n=k ∗ m+r, m, n, k and r are a positive integers, m is greater than 1, r is less than m, each second time unit of the first r second time units correspond to k+1 third time units, and each second time unit of the last m-r second time units correspond to k third time units; notifying, by the network device via radio resource control, RRC, signaling, the segmentation method to a terminal device; determining, by the network device, first indication information, wherein the first indication information comprises m bits and is used to indicate whether information transmission on a first time-frequency resource is affected by preemption, and wherein each of the m bits is in a one-to-one correspondence with the m second time units of the first time-frequency resource and is used to indicate whether information transmission on the respective second time unit in the first time-frequency resource is affected; and sending, by the network device, the first indication information through a physical downlink control channel.
A method comprising: receiving, with one or more processors, information representative of a bioelectrical brain signal of a patient; selecting a frequency band of interest of the bioelectrical brain signal from a plurality of predetermined frequency bands, wherein the frequency band of interest is based on a patient condition, and wherein the predetermined frequency bands include two or more of a delta band, a theta band, an alpha band, a beta band, a gamma band, or a high gamma band; selecting two or more frequency sub-bands of the frequency band of interest of the bioelectric brain signal; determining, with the one or more processors, activity of the bioelectrical brain signal within the selected two or more frequency sub-bands; determining, with the one or more processors, a patient state based on activity of the bioelectrical brain signal within the selected two or more frequency sub-bands of the frequency band of interest of the bioelectrical brain signal; and generating, with the one or more processors, an indication of the determined patient state. receiving, with one or more processors, information representative of a bioelectrical brain signal of a patient; selecting a frequency band of interest of the bioelectrical brain signal from a plurality of predetermined frequency bands, wherein the frequency band of interest is based on a patient condition, and wherein the predetermined frequency bands include two or more of a delta band, a theta band, an alpha band, a beta band, a gamma band, or a high gamma band; selecting two or more frequency sub-bands of the frequency band of interest of the bioelectric brain signal; determining, with the one or more processors, activity of the bioelectrical brain signal within the selected two or more frequency sub-bands; determining, with the one or more processors, a patient state based on activity of the bioelectrical brain signal within the selected two or more frequency sub-bands of the frequency band of interest of the bioelectrical brain signal; and generating, with the one or more processors, an indication of the determined patient state.
Method for sending messages in a telecommunications network (1, 2,6,11,12), in which method - digital messages which contain information on the desired reply address are mass sent, and - messages, which are sent on the basis of the reply-address information are received, - the reply-address information of each mass-sent message is converted to correspond to a predefined dialogue, in which the stage of the dialogue defines unequivocally the reply-address information for each of several subscribers: - wherein the transmission and reception of the messages are implemented in different parts of the telecommunications system (1, 2, 6, 11, 12). - digital messages which contain information on the desired reply address are mass sent, and - messages, which are sent on the basis of the reply-address information are received, - the reply-address information of each mass-sent message is converted to correspond to a predefined dialogue, in which the stage of the dialogue defines unequivocally the reply-address information for each of several subscribers: - wherein the transmission and reception of the messages are implemented in different parts of the telecommunications system (1, 2, 6, 11, 12).
A power control method, comprising: receiving, by a first device, a second message from a second device, wherein the second message comprises information indicating a capability of sharing power among beams of the second device; determining, by the first device, power control information for a first beam set of the second device based on the second message; sending, by the first device, a first message to the second device, wherein the first message comprises the power control information for the first beam set of the second device, wherein the first beam set comprises at least one beam, and the power control information comprises a power control command and information about a maximum transmit power allowed by the first device, wherein the information about the allowed maximum transmit power comprises respective maximum transmit powers allowed for the beams of the second device among which power is not shared and/or a sum of maximum transmit powers allowed for the beams of the second device among which power is shared; and receiving, by the first device, a signal sent by the second device by using the first beam set, wherein a transmit power of a signal on the first beam set is determined based on the power control information. receiving, by a first device, a second message from a second device, wherein the second message comprises information indicating a capability of sharing power among beams of the second device; determining, by the first device, power control information for a first beam set of the second device based on the second message; sending, by the first device, a first message to the second device, wherein the first message comprises the power control information for the first beam set of the second device, wherein the first beam set comprises at least one beam, and the power control information comprises a power control command and information about a maximum transmit power allowed by the first device, wherein the information about the allowed maximum transmit power comprises respective maximum transmit powers allowed for the beams of the second device among which power is not shared and/or a sum of maximum transmit powers allowed for the beams of the second device among which power is shared; and receiving, by the first device, a signal sent by the second device by using the first beam set, wherein a transmit power of a signal on the first beam set is determined based on the power control information.
A device for hemorrhage detection consisting of a capsule and at least one detecting means (3, 4) provided in the capsule for detecting a presence or non-presence of blood, wherein the capsule has an outer shape and a dimension to be swallowable by a patient, wherein the detecting means comprises a light source, preferably at least one LED, and a photosensitive sensor, preferably at least one photodiode or phototransistor, for receiving light emitted from the light source, wherein the light source is adapted to alternately emit light of at least two different wavelengths being absorbed to a different degree by blood or blood components, namely light in the violet range of the visible spectrum having a wavelength in the range of 380-450nm and light in the red range of the visible spectrum having a wavelength in the range of 620-750 nm, wherein the photosensitive sensor is adapted to detect the light at the at least two wavelengths that has not been absorbed by blood or blood components, and wherein the device is adapted to determine a presence or non-presence of blood by comparing the intensities of the light of the at least two different wavelenghts detected by the photo-sensitive sensor, wherein at least one recess is formed in the capsule, extends in a direction perpendicular to a longitudinal axis of the capsule and has edges being rounded to improve the swallowability of the capsule, wherein the light source and the photosensitive sensor are arranged such that they face each other via the at least one recess, and wherein the at least one recess forms a free space into which a substance/content to be examined can flow.
A vehicle snow and ice remover, comprising: a plurality of modular pieces (110, 120) assembled together to form a pair of vertical supports and a cross piece connecting the pair of vertical supports, the plurality of modular pieces (110, 120) having at most two different shapes of modular piece and each having a maximum outer dimension that is less than or equal to 75% of a height of each of the vertical supports; and a roof clearing device (200, 200') movable along the pair of vertical supports. a plurality of modular pieces (110, 120) assembled together to form a pair of vertical supports and a cross piece connecting the pair of vertical supports, the plurality of modular pieces (110, 120) having at most two different shapes of modular piece and each having a maximum outer dimension that is less than or equal to 75% of a height of each of the vertical supports; and a roof clearing device (200, 200') movable along the pair of vertical supports.