mhurhangee/ep-ind-claims huggingface dataset:
A device for controlling and monitoring a metabolic state, activity and well-being of fish, intended to be attached to a fish's operculum, wherein the device comprises a substrate with an electronic circuit and a waterresistant coating that covers the electronic circuit, the device being configured to join temporarily or permanently to the fish's operculum, of which the physical activity and breathing frequency is to be controlled and monitored during periods of ingestion and non-feeding throughout the day, wherein the electronic circuit comprises: - a three orthogonal-axis (x, y, z) acceleration sensor configured to acquire coplanar and normal accelerations of the fish's operculum jointly and simultaneously, - a control unit connected to the acceleration sensor and which contains at least one microcontroller configured to process the coplanar and normal accelerations obtained by the three orthogonal-axis (x, y, z) acceleration sensor, separating swimming movements and movements of gill cover to determine swimming activity from the accelerations in the z (a z) axis which is normal to the fish's operculum and a frequency at which the fish breathes from the accelerations in x, y (a x, a y) axes which are coplanar to the fish's operculum, by executing at least one activity-monitoring routine, - a memory configured to store data acquired by the acceleration sensor and/or data generated by the microcontroller when executing an activity-monitoring routine, and - a battery connected to the control unit, wherein the substrate is configured to establish communication with an external device to which the data acquired by the acceleration sensor and/or the data generated by the microcontroller are sent. - a three orthogonal-axis (x, y, z) acceleration sensor configured to acquire coplanar and normal accelerations of the fish's operculum jointly and simultaneously, - a control unit connected to the acceleration sensor and which contains at least one microcontroller configured to process the coplanar and normal accelerations obtained by the three orthogonal-axis (x, y, z) acceleration sensor, separating swimming movements and movements of gill cover to determine swimming activity from the accelerations in the z (a z) axis which is normal to the fish's operculum and a frequency at which the fish breathes from the accelerations in x, y (a x, a y) axes which are coplanar to the fish's operculum, by executing at least one activity-monitoring routine, - a memory configured to store data acquired by the acceleration sensor and/or data generated by the microcontroller when executing an activity-monitoring routine, and - a battery connected to the control unit,
A method of consolidating a wound body, the method comprising: onto an elongated member, winding a film of a thermoplastic material for forming a wound body comprising a plurality of wound layers of the film around said elongated member; and during said winding, applying a high-frequency, HF, electrical field formed between a first and a second electrode at a nip where a web of the film is pressed onto a previously wound layer of the body, to heat said body at said nip; wherein the second electrode is grounded and comprised in the elongated member; wherein the first electrode is comprised in a roll (3/4/5) forming the nip; and wherein an adhesive is applied between the layers of the film, and wherein the body at the nip is heated to a temperature which is above a softening or melting temperature of the adhesive, but below the melting temperature, Tm, of the thermoplastic material. onto an elongated member, winding a film of a thermoplastic material for forming a wound body comprising a plurality of wound layers of the film around said elongated member; and during said winding, applying a high-frequency, HF, electrical field formed between a first and a second electrode at a nip where a web of the film is pressed onto a previously wound layer of the body, to heat said body at said nip; wherein the second electrode is grounded and comprised in the elongated member; wherein the first electrode is comprised in a roll (3/4/5) forming the nip; and wherein an adhesive is applied between the layers of the film, and wherein the body at the nip is heated to a temperature which is above a softening or melting temperature of the adhesive, but below the melting temperature, Tm, of the thermoplastic material.
A system, comprising: one or more main processors adapted to go into a low-power hibernation state when not active; a management processor adapted not to go into the low-power hibernation state; one or more ports having respective addresses; and wherein the system is adapted to remap the port addresses to the management processor when the one or more main processors go into the low-power hibernation state; wherein the management processor is configured to process an incoming packet that is remapped to the management processor in dependence on a class of the packet by one of: discarding the packet having a particular class, responding to the packet to maintain a network presence of the hibernated main processor, and determining that the packet should be handled by the main processor and wakening the hibernating, main processor to handle the incoming packet. one or more main processors adapted to go into a low-power hibernation state when not active; a management processor adapted not to go into the low-power hibernation state; one or more ports having respective addresses; and wherein the system is adapted to remap the port addresses to the management processor when the one or more main processors go into the low-power hibernation state; wherein the management processor is configured to process an incoming packet that is remapped to the management processor in dependence on a class of the packet by one of: discarding the packet having a particular class, responding to the packet to maintain a network presence of the hibernated main processor, and determining that the packet should be handled by the main processor and wakening the hibernating, main processor to handle the incoming packet. discarding the packet having a particular class, responding to the packet to maintain a network presence of the hibernated main processor, and determining that the packet should be handled by the main processor and wakening the hibernating, main processor to handle the incoming packet.
A method for controlling an exoskeleton worn by a user, the exoskeleton having one or more actuators (16, 13, 19, 38, 39) associated with various body members of the exoskeleton each corresponding to a body part of the user, said body members including a first leg structure and a second leg structure, each of the first leg structure and the second leg structure comprising a foot member, the method comprising the steps of: receiving input data indicative of a desired movement sequence; obtaining from memory pre-programmed movement data indicative of one or more sequential instructions required to effect the movement sequence, each instruction being associated with relative actuator movements for performing the instruction, the one or more sequential instructions comprising at least a landing foot instruction; receiving data indicative of a change in terrain slope during the landing foot instruction, wherein the data indicative of the change in terrain slope is received when a trigger signal is received from at least one contact sensor (71, 72) on an underside of the landing foot member; moving one or more actuators (19, 39) associated with the landing foot member during landing foot instruction upon receiving the trigger to pivot the landing foot member towards a maximum allowable slope angle; updating the relative actuator movements according to stored terrain state data indicative of a current terrain state; and moving the one or more actuators according to the updated relative actuator movements for each instruction. receiving input data indicative of a desired movement sequence; obtaining from memory pre-programmed movement data indicative of one or more sequential instructions required to effect the movement sequence, each instruction being associated with relative actuator movements for performing the instruction, the one or more sequential instructions comprising at least a landing foot instruction; receiving data indicative of a change in terrain slope during the landing foot instruction, wherein the data indicative of the change in terrain slope is received when a trigger signal is received from at least one contact sensor (71, 72) on an underside of the landing foot member; moving one or more actuators (19, 39) associated with the landing foot member during landing foot instruction upon receiving the trigger to pivot the landing foot member towards a maximum allowable slope angle; updating the relative actuator movements according to stored terrain state data indicative of a current terrain state; and moving the one or more actuators according to the updated relative actuator movements for each instruction.
Dispensing device for a drink based on a first fluid to which a second fluid can be added selectively, said device comprising a support (2, 4) containing a dispensing chamber having a first port communicating with a reservoir of said first fluid, a second port communicating with a reservoir of said second fluid, and a outlet port for said first and/or second fluids, said device comprising a dispensing assembly (19, 21, 23, 26) mounted movably relative to said support following: - a first displacement arranged to open and close said outlet port and/or the first port selectively, said device including a first actuating element for said first displacement, and - a second displacement arranged to open and close said second port selectively, said device comprising a second element to enable the actuation of said second displacement; said device being characterised in that the second element is arranged to be actuated, after the actuation of the first element and following a type of motion which is different to the motion necessary to actuate said first element. - a first displacement arranged to open and close said outlet port and/or the first port selectively, said device including a first actuating element for said first displacement, and - a second displacement arranged to open and close said second port selectively, said device comprising a second element to enable the actuation of said second displacement;
A method for generating and updating a remote instance of a screen view for at least one communication device during a communication session, with a system comprising a computer unit, at least one communication device, a first communication path between the computer unit and the least one communication device, a second communication path between the computer unit and the least one communication device, a security controller and a broker, wherein the remote instance of a screen view represents an image representation, which is displayed visibly for the communication partner at the communication device as remote device, and which at least partially corresponds to the screen view, wherein the screen view is displayed on a computer unit during a communication session and the remote instance is displayed on at least one communication device, wherein the screen view has a number of data elements that are presented on the screen view in accordance with a defined static or dynamic display schema, which defines the display position and display form of data elements and comprises no information about the actual value of data elements, wherein the method comprises following steps: - Transmission of the display schema of the screen view, which at least partially corresponds to a display schema (5 I, 5 II), to the at least one communication device at least a first time via the first communication path, - Transmission of the values of at least one of the data elements to at least one communication device via the second communication path during the communication session, in accordance with a protocol which functions in accordance with a subscriber/publisher model, whereas no direct end-to-end connection is established, but the communication is always effected via the interposed broker, wherein the broker receives data from a publisher and makes it available to one or more subscribers, - Combination of received values of the data elements and the received display schema (5 I, 5 II) through the at least one communication device, and - Display of the remote instance at this communication device. - Transmission of the display schema of the screen view, which at least partially corresponds to a display schema (5 I, 5 II), to the at least one communication device at least a first time via the first communication path, - Transmission of the values of at least one of the data elements to at least one communication device via the second communication path during the communication session, in accordance with a protocol which functions in accordance with a subscriber/publisher model, whereas no direct end-to-end connection is established, but the communication is always effected via the interposed broker, wherein the broker receives data from a publisher and makes it available to one or more subscribers, - Combination of received values of the data elements and the received display schema (5 I, 5 II) through the at least one communication device, and - Display of the remote instance at this communication device.
Use of an adhesive composition comprising at least one silyl-containing polymer selected from a silyl-containing polyether, a silyl-containing polyurethane, a silyl-containing polyurethane having polyurethane-polyether and polyurethane-polyester blocks, and mixtures thereof, at least one compatible tackifying resin and at least one catalyst, to make, after curing, a breathable self-adhesive article, wherein the adhesive article comprises a substrate and an adhesive layer, said substrate has a Moisture-Vapour Transmission Rate superior or equal to 1000 g/m 2 /24h.
A dry powder formulation for use in a dry powder inhaler comprising: a) a fraction of fine particles made of a mixture of 90 to 99.5 percent by weight of particles of alpha-lactose monohydrate and 0.5 to 10 percent by weight of magnesium stearate, said mixture having a mass median diameter lower than 20 micron; b) a fraction of coarse particles constituted of alpha-lactose monohydrate having a mass median diameter equal to or greater than 175 micron, wherein the ratio between the fine particles and the coarse particles is between 2:98 and 20:80 percent by weight; and c1) formoterol fumarate dihydrate in the form of micronized particles; c2) beclomethasone dipropionate in the form of micronized particles; wherein i) no more than 10% of said BDP particles (d(v,0.1)) have a volume diameter lower than 0.6 micron; ii) no more than 50% of said particles (d(v,0.5)) have a volume diameter comprised between 1.5 micron and 2.0 micron; and iii) at least 90% of said particles (d(v,0.9)) have a volume diameter lower than 4.7 micron, and wherein said BDP particles are further characterized by a particle size span, defined as [d(v,0.9) - d(v,0.1)]/ d(v,0.5), comprised between 1.2 and 2.2 and by a specific surface area comprised between 5.5 and 7.0 m 2 /g. a) a fraction of fine particles made of a mixture of 90 to 99.5 percent by weight of particles of alpha-lactose monohydrate and 0.5 to 10 percent by weight of magnesium stearate, said mixture having a mass median diameter lower than 20 micron; b) a fraction of coarse particles constituted of alpha-lactose monohydrate having a mass median diameter equal to or greater than 175 micron, wherein the ratio between the fine particles and the coarse particles is between 2:98 and 20:80 percent by weight; and c1) formoterol fumarate dihydrate in the form of micronized particles; c2) beclomethasone dipropionate in the form of micronized particles;
An organoid comprising a heterogeneous renal cell population and a non-renal bioactive cell population, wherein the heterogenous renal cell population is derived from a starting kidney cell population; wherein the heterogeneous renal cell population comprises a greater percentage of renal tubular cells than does the starting kidney cell population, wherein the starting kidney cell population is a kidney biopsy sample, whole kidney tissue or an in vitro culture of cells established from either a kidney biopsy sample or whole kidney tissue, and wherein the heterogeneous renal cell population further comprises collecting duct epithelial cells, wherein the non-renal bioactive cell population is a non-renal endothelial cell population, a non-renal endothelial progenitor cell population, a non-renal mesenchymal stem cell population, or a non-renal adipose-derived progenitor cell population, and wherein the organoid is cultured as a cluster of cells in media in suspension without attachment to a scaffold. wherein the heterogenous renal cell population is derived from a starting kidney cell population; wherein the heterogeneous renal cell population comprises a greater percentage of renal tubular cells than does the starting kidney cell population, wherein the starting kidney cell population is a kidney biopsy sample, whole kidney tissue or an in vitro culture of cells established from either a kidney biopsy sample or whole kidney tissue, and wherein the heterogeneous renal cell population further comprises collecting duct epithelial cells, wherein the non-renal bioactive cell population is a non-renal endothelial cell population, a non-renal endothelial progenitor cell population, a non-renal mesenchymal stem cell population, or a non-renal adipose-derived progenitor cell population, and wherein the organoid is cultured as a cluster of cells in media in suspension without attachment to a scaffold.
A high toughness inorganic composite artificial stone panel, comprising: a surface layer, an intermediate metal fiber toughening layer, and a substrate toughening layer; wherein the surface layer comprises the following raw material components in parts by weight: 40-70 parts of quartz sand, 10-30 parts of quartz powder, 20-45 parts of inorganic active powder, 0.5-4 parts of pigment, 0.3-1 part of water reducer and 3-10 parts of water; the intermediate metal fiber toughening layer comprises the following raw material components in parts by weight: 40-60 parts of inorganic active powder, 45-65 parts of sand, 0.8-1.5 parts of water reducer, 6-14 parts of water and 4-8 parts of metal fiber; and the substrate toughening layer comprises the following raw material components in parts by weight: 30-50 parts of inorganic active powder, 30-55 parts of quartz sand, 15-20 parts of quartz powder, 0.5-1.2 parts of water reducer, 4-8 parts of water and 0.8-2.5 parts of toughening agent, wherein the quartz sand has a fineness modulus of 2.0-3.0, a content of silicon dioxide above 93% and a hardness of a raw stone above 7 Mohs; and the quartz powder has a fineness of 600 mesh or more, a content of silicon dioxide above 93%, a hardness of a raw stone above 7 Mohs. wherein the surface layer comprises the following raw material components in parts by weight: 40-70 parts of quartz sand, 10-30 parts of quartz powder, 20-45 parts of inorganic active powder, 0.5-4 parts of pigment, 0.3-1 part of water reducer and 3-10 parts of water; the intermediate metal fiber toughening layer comprises the following raw material components in parts by weight: 40-60 parts of inorganic active powder, 45-65 parts of sand, 0.8-1.5 parts of water reducer, 6-14 parts of water and 4-8 parts of metal fiber; and the substrate toughening layer comprises the following raw material components in parts by weight: 30-50 parts of inorganic active powder, 30-55 parts of quartz sand, 15-20 parts of quartz powder, 0.5-1.2 parts of water reducer, 4-8 parts of water and 0.8-2.5 parts of toughening agent, wherein the quartz sand has a fineness modulus of 2.0-3.0, a content of silicon dioxide above 93% and a hardness of a raw stone above 7 Mohs; and the quartz powder has a fineness of 600 mesh or more, a content of silicon dioxide above 93%, a hardness of a raw stone above 7 Mohs.
A method of operating a wireless communications network infrastructure entity during transmission of Multimedia Broadcast Multicast Service, MBMS, subframes, the method being characterized by: transmitting a subframe comprising a unicast symbol in a first predetermined symbol position within said subframe, said unicast symbol comprising a first antenna reference information; and transmitting a second subframe comprising a second unicast symbol in a second predetermined symbol position within said second subframe, said second unicast symbol comprising a second antenna reference information, wherein said second predetermined symbol position is identical to said first predetermined symbol position. transmitting a subframe comprising a unicast symbol in a first predetermined symbol position within said subframe, said unicast symbol comprising a first antenna reference information; and transmitting a second subframe comprising a second unicast symbol in a second predetermined symbol position within said second subframe, said second unicast symbol comprising a second antenna reference information, wherein said second predetermined symbol position is identical to said first predetermined symbol position.
Nut provided with an internal thread and with a restriction means for locking thereof in a position screwed onto the external thread of a part, the nut being provided with a head continued by a barrel an upper part of which is cylindrical and continues with a lower part with a square cross section and with a thickness less than that of said upper cylindrical part, said nut being characterised in that the restriction means is formed by at least one pressed region of the internal thread in which the internal thread is locally deformed and forms a band corresponding to a crushing of one or more sections of the counter-threads of the internal thread, said internal thread being able to be deformed by the external thread of the part during screwing, the threads of the external thread pushing and partly tearing the band, said at least one localised deformation of the internal thread being produced on one or more external surfaces forming the faces of the lower part with a square cross section.
Sample rate converter for converting an input sample rate (F s1) of a signal into an output sample rate (F s4), wherein the sample rate converter comprises a sample rate adapter (3,6), the sample rate adapter being configured to adapt, in response to a control signal (CTRL) having a first value, an intermediate sample rate (F s2) such that the output sample rate is larger than the input sample rate (F s1), and; to adapt, in response to a control signal (CTRL) having a second value, the intermediate sample rate (F s2) such that the output sample rate (F s4) is smaller than the input sample rate (F s1); the sample rate converter being characterised in that the sample rate adapter (3,6) comprises a variable sample rate decreaser for variably decreasing the intermediate sample rate (F s2); the sample rate converter comprises a fixed sample rate increaser for fixedly increasing the input sample rate (F s1) and for generating a signal with the intermediate sample rate (F s2) destined for the variable sample rate decreaser; the variable sample rate decreaser variably decreases the intermediate sample rate (F s2) with a variable decreasing factor L; and the relative change in L, ΔL/L, where ΔL is the change in L, is smaller than 20%.