mhurhangee/ep-ind-claims huggingface dataset:
A liquid level sensor (104; 400) for measuring a liquid level within a container, the liquid level sensor (104; 400) comprising: a first layer; a stretchable electrode layer (200; 300; 404) provided on the first layer, the stretchable electrode layer comprises: a first stretchable receiver electrode (202; 302), and a stretchable transmitter electrode (204; 306); wherein the stretchable electrode layer (200; 300; 404) is stretchable and bendable such that the stretchable electrode layer (200; 300; 404) conforms to a shape of a non-flat outer surface of a container when the liquid level sensor (104; 400) is attached to the non-flat outer surface; wherein the stretchable electrode layer (200; 300; 404) is configured to be mounted to the non-flat outer surface of the container along a desired range of heights to be sensed within the container; and a second layer provided on the stretchable electrode layer (200; 300; 404); wherein the liquid level sensor (104; 400) has a Young's modulus of less than 100 megapascals. a first layer; a stretchable electrode layer (200; 300; 404) provided on the first layer, the stretchable electrode layer comprises: a first stretchable receiver electrode (202; 302), and a stretchable transmitter electrode (204; 306); wherein the stretchable electrode layer (200; 300; 404) is stretchable and bendable such that the stretchable electrode layer (200; 300; 404) conforms to a shape of a non-flat outer surface of a container when the liquid level sensor (104; 400) is attached to the non-flat outer surface; wherein the stretchable electrode layer (200; 300; 404) is configured to be mounted to the non-flat outer surface of the container along a desired range of heights to be sensed within the container; and a first stretchable receiver electrode (202; 302), and a stretchable transmitter electrode (204; 306); wherein the stretchable electrode layer (200; 300; 404) is stretchable and bendable such that the stretchable electrode layer (200; 300; 404) conforms to a shape of a non-flat outer surface of a container when the liquid level sensor (104; 400) is attached to the non-flat outer surface; wherein the stretchable electrode layer (200; 300; 404) is configured to be mounted to the non-flat outer surface of the container along a desired range of heights to be sensed within the container; and a second layer provided on the stretchable electrode layer (200; 300; 404); wherein the liquid level sensor (104; 400) has a Young's modulus of less than 100 megapascals.
Robotic automated palletizing installation, in which at least one robot is used in at least one mode of operation in at least one work zone, said installation comprising: - a closed space equipped with at least one door giving access to at least one operator intervention station, said at least one operator intervention station being situated in said work zone of said robot, - means for detecting the presence of an element (25; 26) in said closed space at said operator intervention station, for example including a camera, the means for detecting being arranged in said closed space to delimit at least two zones (8, 9, 10), and also being associated with means for controlling said at least one mode of operation of the robot, each zone (8, 9, 10) delimited by the means for detecting being associated with one mode of operation of the robot, the means for detecting being positioned at a predetermined height from a floor of said closed space, said height being greater than the height of an empty pallet, said at least two zones (8, 9, 10) covering at least partially the operator intervention station and being situated higher than a predetermined high from a floor of said closed space, said high also being higher than the high of an empty pallet, such that the presence or absence of an empty pallet is not detected by the means for detecting. - a closed space equipped with at least one door giving access to at least one operator intervention station, said at least one operator intervention station being situated in said work zone of said robot, - means for detecting the presence of an element (25; 26) in said closed space at said operator intervention station, for example including a camera,
Coupling device for coupling an autonomous vehicle to a patient transport device, comprising: - a connecting member which is designed to attach the coupling device to an autonomous vehicle, - a first link with a proximal end portion (5.1) and an opposite distal end portion (5.2), wherein the proximal end portion (5.1) of the link is rotatably mounted on the connecting member by means of a rotary joint of the coupling device, and - an angled coupling rod with a proximal leg (6.1) and a distal leg (6.2) arranged at an angle with respect to the longitudinal extension of the proximal leg (6.1), wherein the proximal leg (6.1) of the coupling rod is pivotally mounted on the distal end section (5.2) of the handlebar by means of a pivot joint of the coupling device and the distal leg (6.2) of the coupling rod forms a connection section for coupling the coupling device to a patient transport device. - a connecting member which is designed to attach the coupling device to an autonomous vehicle, - a first link with a proximal end portion (5.1) and an opposite distal end portion (5.2), wherein the proximal end portion (5.1) of the link is rotatably mounted on the connecting member by means of a rotary joint of the coupling device, and - an angled coupling rod with a proximal leg (6.1) and a distal leg (6.2) arranged at an angle with respect to the longitudinal extension of the proximal leg (6.1), wherein the proximal leg (6.1) of the coupling rod is pivotally mounted on the distal end section (5.2) of the handlebar by means of a pivot joint of the coupling device and the distal leg (6.2) of the coupling rod forms a connection section for coupling the coupling device to a patient transport device.
A system comprising: a wet extrusion process machine configured to receive, mix, and convey a plurality of ingredients to an extrusion die, the plurality of ingredients including a protein powder, an oil, and water; and an electronic process control system (EPCS) configured to control the wet extrusion machine using a plurality of process settings effective to produce an extrusion die mixture which is forced into, passes through, and is output from the extrusion die; characterized in that the system comprises a supervisory machine intelligence control system (SMICS) operatively coupled with at least one of a direct fibrosity measurement subsystem configured to directly measure one or more physical fibrosity parameters of the extrusion die mixture, and an indirect fibrosity measurement subsystem configured to measure one or more extrusion process parameters associated with the extrusion die mixture; wherein the SMICS is configured to modify one or more of the plurality process settings in response to at least one of the one or more physical fibrosity parameters, and the one or more extrusion process parameters. a wet extrusion process machine configured to receive, mix, and convey a plurality of ingredients to an extrusion die, the plurality of ingredients including a protein powder, an oil, and water; and an electronic process control system (EPCS) configured to control the wet extrusion machine using a plurality of process settings effective to produce an extrusion die mixture which is forced into, passes through, and is output from the extrusion die; characterized in that the system comprises a supervisory machine intelligence control system (SMICS) operatively coupled with at least one of a direct fibrosity measurement subsystem configured to directly measure one or more physical fibrosity parameters of the extrusion die mixture, and an indirect fibrosity measurement subsystem configured to measure one or more extrusion process parameters associated with the extrusion die mixture; wherein the SMICS is configured to modify one or more of the plurality process settings in response to at least one of the one or more physical fibrosity parameters, and the one or more extrusion process parameters.
Composition for use in a Monosil process for the crosslinking of thermoplastic polyolefins, characterized in that the composition comprises (i) from 5 to 60% by weight content of 2-ethylhexanoic acid [H 3 C(CH 2) 3 CH(C 2 H 5)COOH], (ii) content of at least one monounsaturated organofunctional alkoxysilane of the general formula I A-SiR 2 x (OR 1) 3-x, where R 1 is mutually independently a linear or branched hydrocarbon moiety having from 1 to 4 C atoms, R 2 is methyl and x is 0 or 1 and A is a monovalent olefin group of the formula (R 3) 2 C=C(R 3)-M k -, where k is 0 or 1, in which groups R 3 are identical or different and R 3 is a hydrogen atom or a methyl group and the group M is a group from the following list: -CH 2 -,-(CH 2) 2 -, -(CH 2) 3 - and -C O-(CH 2) 3 -, (iii) content of at least one free-radical generator and (iv) optionally content of at least one other component, where the entirety of all components (i) to (iv) gives 100% by weight. (i) from 5 to 60% by weight content of 2-ethylhexanoic acid [H 3 C(CH 2) 3 CH(C 2 H 5)COOH], (ii) content of at least one monounsaturated organofunctional alkoxysilane of the general formula I A-SiR 2 x (OR 1) 3-x, where R 1 is mutually independently a linear or branched hydrocarbon moiety having from 1 to 4 C atoms, R 2 is methyl and x is 0 or 1 and A is a monovalent olefin group of the formula (R 3) 2 C=C(R 3)-M k -, where k is 0 or 1, in which groups R 3 are identical or different and R 3 is a hydrogen atom or a methyl group and the group M is a group from the following list: -CH 2 -,-(CH 2) 2 -, -(CH 2) 3 - and -C O-(CH 2) 3 -, R 1 is mutually independently a linear or branched hydrocarbon moiety having from 1 to 4 C atoms, R 2 is methyl and x is 0 or 1 and A is a monovalent olefin group of the formula (R 3) 2 C=C(R 3)-M k -, where k is 0 or 1, in which groups R 3 are identical or different and R 3 is a hydrogen atom or a methyl group and the group M is a group from the following list: -CH 2 -,-(CH 2) 2 -, -(CH 2) 3 - and -C O-(CH 2) 3 -, (iii) content of at least one free-radical generator and (iv) optionally content of at least one other component,
A method of processing a signal by a relay node in a wireless communication system, the method comprising: transmitting, by the relay node to a network, a first message associated with a connection re-establishment, wherein the first message includes an indicator indicating a connection re-establishment cause; receiving, by the relay node, a second message associated with the connection re-establishment; when the indicator indicates integrity failure on an acknowledged mode, AM, data radio bearer, DRB, as the connection re-establishment cause, resetting, by the relay node, a value of at least one packet data convergence protocol, PDCP, state variable associated with the AM DRB to a predetermined value according to the second message for consistency of the at least one PDCP state variable between the relay node and the network, wherein the second message includes a command for resetting the at least one PDCP state variable associated with the AM DRB; and when the indicator indicates connection re-establishment cause other than the integrity failure on the AM DRB, maintaining the value of the at least one PDCP state variable, wherein the AM DRB is used for carrying at least control information from the network. transmitting, by the relay node to a network, a first message associated with a connection re-establishment, wherein the first message includes an indicator indicating a connection re-establishment cause; receiving, by the relay node, a second message associated with the connection re-establishment; when the indicator indicates integrity failure on an acknowledged mode, AM, data radio bearer, DRB, as the connection re-establishment cause, resetting, by the relay node, a value of at least one packet data convergence protocol, PDCP, state variable associated with the AM DRB to a predetermined value according to the second message for consistency of the at least one PDCP state variable between the relay node and the network, wherein the second message includes a command for resetting the at least one PDCP state variable associated with the AM DRB; and when the indicator indicates connection re-establishment cause other than the integrity failure on the AM DRB, maintaining the value of the at least one PDCP state variable, wherein the AM DRB is used for carrying at least control information from the network.
A transepithelial abutment for the attachment of a prosthesis with a dental implant, said abutment consisting of three components: - an upper body (20, 25) where a dental prosthesis or dental device is to be arranged, with an upper base and a lower base both connected by a through hollow space having an inner thread, - a lower body to connect with the dental implant, with an upper base and a lower base connected by an inner housing, said upper base of the lower body having a planar surface around the opening of the inner housing and the inner housing having a seating to receive the head of a screw, wherein a first lower segment of the inner housing of the lower body extends along a first axis "a" and a second upper segment of said inner housing extends along a second axis "b" forming an angle with respect to said first axis "a" and being perpendicular to the upper base of said lower body, and - a screw inside the inner housing of the lower body with the head of the screw located above the seating, the upper body (20, 25) being integral with the lower body, with the lower base of the upper body (20, 25) introduced and attached in the opening of the housing of the lower body with permanent attachment means, thereby forming a single device where the screw remains captive between both bodies (20, 25, 30), with movements of the screw within the inner housing of the lower body limited by the upper body (20, 25). - an upper body (20, 25) where a dental prosthesis or dental device is to be arranged, with an upper base and a lower base both connected by a through hollow space having an inner thread, - a lower body to connect with the dental implant, with an upper base and a lower base connected by an inner housing, said upper base of the lower body having a planar surface around the opening of the inner housing and the inner housing having a seating to receive the head of a screw, wherein a first lower segment of the inner housing of the lower body extends along a first axis "a" and a second upper segment of said inner housing extends along a second axis "b" forming an angle with respect to said first axis "a" and being perpendicular to the upper base of said lower body, and - a screw inside the inner housing of the lower body with the head of the screw located above the seating,
Use of a diazadienyl compound represented by General Formula below: wherein R 1 represents a C 1-6 linear or branched alkyl group, and M represents nickel atom or manganese atom, for forming a thin film having low carbon content.
A method of dyeing metallic objects in the course of a powder injection moulding process characterised in that the metallic objects are supplied with a dyeing gas, wherein composition and amount of the dyeing gas are adjusted according to a desired colour of the metallic objects.
A shrink bag (10, 110) comprising: a. a first wall (12, 112) and a second wall opposing each other; b. a first edge (16, 116), a second edge (18, 118) opposing the first edge, a third edge (20, 120) substantially perpendicular to the first edge and the second edge, and a fourth edge (22, 122) opposing the third edge; c. a first seal (30, 130) connecting the first and second walls (12, 112, 14) wherein the first seal comprises a first part (32, 132) extending from the first edge (16, 116) to the second edge (18, 118), a second part (34, 134) extending into a header (40, 140) and a third part (36, 136) extending into a product space; and d. a tear initiator (42, 142) starting at a point within the header (40, 140) and extending to a point within the first seal (30, 130); wherein the header (40, 140) is located between the first part (32, 132) of the first seal and the fourth edge (22, 122); and wherein the product space is located between the first part (32, 132) of the first seal and the third edge (20, 120). a. a first wall (12, 112) and a second wall opposing each other; b. a first edge (16, 116), a second edge (18, 118) opposing the first edge, a third edge (20, 120) substantially perpendicular to the first edge and the second edge, and a fourth edge (22, 122) opposing the third edge; c. a first seal (30, 130) connecting the first and second walls (12, 112, 14) wherein the first seal comprises a first part (32, 132) extending from the first edge (16, 116) to the second edge (18, 118), a second part (34, 134) extending into a header (40, 140) and a third part (36, 136) extending into a product space; and d. a tear initiator (42, 142) starting at a point within the header (40, 140) and extending to a point within the first seal (30, 130); wherein the header (40, 140) is located between the first part (32, 132) of the first seal and the fourth edge (22, 122); and wherein the product space is located between the first part (32, 132) of the first seal and the third edge (20, 120).
A β-1,3-glucan derivative represented by the following General Formula as a main chain: wherein, each of a plurality of R 1 s independently represents a hydrogen atom or -COR 2, n represents an integer of 1 or greater, R 2 represents an aliphatic hydrocarbon group or an aromatic hydrocarbon group, and provided that-a part of a plurality of the R 1 s is -COR 2), wherein the number of -COR 2 s per glucose unit in the β-1,3-glucan derivative is 0.1 or greater, wherein at least a part of R 2 s in the β-1,3-glucan derivative is an aliphatic hydrocarbon group having 13 or more carbon atoms. wherein, each of a plurality of R 1 s independently represents a hydrogen atom or -COR 2, n represents an integer of 1 or greater, R 2 represents an aliphatic hydrocarbon group or an aromatic hydrocarbon group, and provided that-a part of a plurality of the R 1 s is -COR 2), wherein the number of -COR 2 s per glucose unit in the β-1,3-glucan derivative is 0.1 or greater, wherein at least a part of R 2 s in the β-1,3-glucan derivative is an aliphatic hydrocarbon group having 13 or more carbon atoms.
Steel sheet pile in double-T form, comprising a web and two flanges (14, 14', 114, 214), wherein each flange (14, 14', 114, 214) has an inner side (18, 18') facing the web, an outer side (20, 20', 120, 220) facing away from the web, and two longitudinal edges (22, 22', 222), each of these longitudinal edges (22, 22', 222) laterally delimiting a flange end, wherein a coupling means is formed along the longitudinal edge (22, 22') of at least one flange end, for connecting to said flange end a connection profile, wherein said coupling means is formed by a groove (24, 24', 124) with a substantially V-shaped cross-section, said groove (24, 24', 124) extending in the outer side (20, 20', 120, 220) of said flange end along the longitudinal edge (22, 22', 222) thereof, and having an opening width "b", and a depth "t", characterized in that said groove (24,24',124') is arranged in a flange end with a constant thickness "e" or in a flange end that is thickened in a wedge shape towards the outer side of the flange so as to have a maximum thickness "e" at the longitudinal edge of the flange end in the vicinity of said groove, and in that 0.5 · e ≤ b ≤ 1.5 · e and 10 mm ≤ t ≤ 0.5 · e.
A train integrity detection device based on an RFID technology, the device comprising RFID electronic tags mounted to a head carriage and to a tail carriage of a train subject to train integrity detection, the train including a locomotive, RFID readers and a train integrity detection system, wherein the RFID readers are mounted on a ground track or trackside and are configured to read the RFID electronic tags at the head carriage and tail carriage of a train, and then send read information to a train integrity detection system of the locomotive by means of communication units of the RFID readers; and the train integrity detection system is configured to calculate the train's length according to stored train head and tail carriages data corresponding to the RFID electronic tags, an interval time defined by reading the RFID electronic tags at the head carriage and tail carriage of the train, and the current speed and displacement of the train, so as to calculate the integrity of the train. the RFID readers are mounted on a ground track or trackside and are configured to read the RFID electronic tags at the head carriage and tail carriage of a train, and then send read information to a train integrity detection system of the locomotive by means of communication units of the RFID readers; and the train integrity detection system is configured to calculate the train's length according to stored train head and tail carriages data corresponding to the RFID electronic tags, an interval time defined by reading the RFID electronic tags at the head carriage and tail carriage of the train, and the current speed and displacement of the train, so as to calculate the integrity of the train.
Method for transporting containers having at least two transport devices (101, 102) each driven by a servo motor (110, 120), wherein a closed-loop control of the servo motors is effected based on a comparison of the position of the servo motors determined by the position sensors (111, 121) of the servo motors (110, 120) and a target position of the servo motors, and the servo motors are brought to a standstill in the event of a fault of one of the position sensors, characterized in that a) at least one of the servo motors is brought to a standstill in a closed-loop manner using the position determined by the faulty position sensor if the faulty position sensor can determine the current position of the transport device, or b) at least one of the servo motors is brought to a standstill in an open-loop manner if the faulty position sensor cannot determine the current position of the transport device, wherein instead of the current position of the transport device determined by the faulty position sensor, a target position of the at least one servo motor is used to stop the servo motor in an open-loop manner. a) at least one of the servo motors is brought to a standstill in a closed-loop manner using the position determined by the faulty position sensor if the faulty position sensor can determine the current position of the transport device, or b) at least one of the servo motors is brought to a standstill in an open-loop manner if the faulty position sensor cannot determine the current position of the transport device, wherein instead of the current position of the transport device determined by the faulty position sensor, a target position of the at least one servo motor is used to stop the servo motor in an open-loop manner.