mhurhangee/ep-ind-claims huggingface dataset:
A system for providing an assistive driving force to a wheelchair comprising: (a) a power assist system comprising a power assist drive system and (b) a sensor, characterised in that the sensor is configured to detect a motion of a user's hand, the sensor being in communication with the power assist system; wherein the system is configured to i. determine when the wheelchair is being manually pushed based, at least in part, on the user's hand's motion detected by the sensor; and/or ii. determine when the wheelchair is being manually braked based, at least in part, on the user's hand's motion detected by the sensor. (a) a power assist system comprising a power assist drive system and (b) a sensor, characterised in that the sensor is configured to detect a motion of a user's hand, the sensor being in communication with the power assist system; wherein the system is configured to i. determine when the wheelchair is being manually pushed based, at least in part, on the user's hand's motion detected by the sensor; and/or ii. determine when the wheelchair is being manually braked based, at least in part, on the user's hand's motion detected by the sensor. i. determine when the wheelchair is being manually pushed based, at least in part, on the user's hand's motion detected by the sensor; and/or ii. determine when the wheelchair is being manually braked based, at least in part, on the user's hand's motion detected by the sensor.
Carousel for liquid containers for a device for the automated analysis of liquids, wherein the carousel comprises a reagent and/or sample carousel (11, 12) that is rotatable about the central axis of rotation of the carousel, wherein the reagent/sample carousel (11, 12) has reagent and/or sample compartments (14, 15) for receiving reagent and/or sample containers (100, 101), characterized in that the reagent and/or sample carousel is a combined reagent/sample carousel, in which zones for reagent compartments as well as zones for sample compartments are provided, and wherein the carousel additionally has a reaction vessel carousel, with reaction vessel compartments for receiving reaction vessels, arranged concentrically about the axis of rotation, wherein a heat-insulating layer is provided between the combined reagent and/or sample carousel (11, 12) and the reaction vessel carousel, and wherein the combined reagent/sample carousel (11, 12) and the reaction vessel carousel are elements of the carousel that are physically separate but which can be connected together detachably.
A method of making a small crystal SSZ-32 zeolite, comprising (a) preparing a reaction mixture comprising: (i) at least one active source of an oxide of silicon; (ii) at least one active source of an oxide of aluminum; (iii) at least one active source of an alkali metal; (iv) hydroxide ions; and (v) an organic templating agent having the structure: wherein R is a C 1 to C 5 alkyl group and A - is an anion which is not detrimental to the crystallization of the zeolite; and (b) maintaining the reaction mixture under conditions sufficient to form crystals of the zeolite wherein the zeolite is prepared in the absence of an amine component; wherein the zeolite has a crystallite size of 10 to 40 nanometers; wherein the reaction mixture has a composition in terms of molar ratios falling within the ranges below: SiO 2 /Al 2 O 3 molar ratio 20 - < 72 H 2 O/SiO 2 molar ratio 15 - 35 OH - /SiO 2 molar ratio 0.07 - 1.0 M/SiO 2 molar ratio 0.02 - 0.5 Q/SiO 2 molar ratio 0.02 - 0.5 wherein M is an alkali metal cation; and Q is the organic templating agent; and wherein the conditions are sufficient to form crystals of the zeolite and comprise heating the reaction mixture at a first temperature of from 175°C to 190°C for a period of from 12 to 48 hours; and reducing the first temperature of the reaction mixture to a second temperature of from 140°C to 170°C for a suitable period of time to form crystals of the zeolite. (a) preparing a reaction mixture comprising: (i) at least one active source of an oxide of silicon; (ii) at least one active source of an oxide of aluminum; (iii) at least one active source of an alkali metal; (iv) hydroxide ions; and (v) an organic templating agent having the structure: wherein R is a C 1 to C 5 alkyl group and A - is an anion which is not detrimental to the crystallization of the zeolite; and (i) at least one active source of an oxide of silicon; (ii) at least one active source of an oxide of aluminum; (iii) at least one active source of an alkali metal; (iv) hydroxide ions; and (v) an organic templating agent having the structure: (b) maintaining the reaction mixture under conditions sufficient to form crystals of the zeolite wherein the zeolite is prepared in the absence of an amine component; wherein the zeolite has a crystallite size of 10 to 40 nanometers;
Load-bearing battery module for a motor vehicle, comprising a module housing having module side walls, a module floor, and a module cover, and comprising a cell package having a plurality of battery cells arranged within the module housing, characterized in that at least one spring device is arranged between at least one first module side wall and the cell package, the spring device being designed to push the cell package in the direction of a second module side wall opposite the first module side wall in order to form a deformation space between the first module side wall and the cell package, a cooling device for dissipating heat from the cell package being arranged between the cell package and the module cover, a spring device being arranged between the module floor and the cell package, the spring device being designed to push the cell package in the direction of the module cover in order to form a deformation space between the module floor and the cell package, a support device which extends between the module cover and the module floor being arranged within the module housing, and an upper support end of the support device being supported against the module cover or the cooling device, and a lower support end of the support device being supported against the spring device arranged between the module floor and the cell packages.
A device for molding a plastic part from a plastic material including a solubilized gas, the device comprising: - a fixed block comprising a first half-imprint and a movable block comprising a second half-imprint, the fixed block and the movable block joining together at the level of a parting plane and the first and second imprints (2, 4) delimiting a molding cavity designed to receive the plastic material, having a first volume and featuring a main demolding direction, - means for spacing the movable block apart from the fixed block, allowing making the molding cavity switch from the first volume into a second volume; characterized in that the device further comprises: - at least one movable insert disposed in the fixed block carrying at least one movable element (16', 25), pushing means urging the movable insert in the direction of the movable block, the pushing means being configured so that the movable insert accompanies spacing of the movable block between the first volume and the second volume, while keeping constant the spacing between the second half-imprint formed in the movable block and the movable element(s) (16', 25) carried by the movable insert, - means for displacing the movable element(s) (16', 25) in a secondary direction non parallel to the main demolding direction during a full opening. - a fixed block comprising a first half-imprint and a movable block comprising a second half-imprint, the fixed block and the movable block joining together at the level of a parting plane and the first and second imprints (2, 4) delimiting a molding cavity designed to receive the plastic material, having a first volume and featuring a main demolding direction, - means for spacing the movable block apart from the fixed block, allowing making the molding cavity switch from the first volume into a second volume; - at least one movable insert disposed in the fixed block carrying at least one movable element (16', 25), pushing means urging the movable insert in the direction of the movable block, the pushing means being configured so that the movable insert accompanies spacing of the movable block between the first volume and the second volume, while keeping constant the spacing between the second half-imprint formed in the movable block and the movable element(s) (16', 25) carried by the movable insert, - means for displacing the movable element(s) (16', 25) in a secondary direction non parallel to the main demolding direction during a full opening.
A method for processing a medical device alert in a medical device monitoring system, the method comprising the steps of: remotely receiving, by a wireless relay module, a message from a medical device; determining, by the wireless relay module, if said message is indicative of an alert condition from the medical device and, if said message type is indicative of an alert, sending the message to a device integration server; the method characterized by receiving, by the device integration server, the alert message; retrieving, by the device integration server, the text messaging numbers associated with identifying information of the medical device; transmitting said text messaging numbers and text message information according to the alert message to said wireless relay module via a secure wireless wide-area network, WWAN; and said wireless relay module transmitting text message information to said text messaging numbers over said secure wireless wide-area network, WWAN. remotely receiving, by a wireless relay module, a message from a medical device; determining, by the wireless relay module, if said message is indicative of an alert condition from the medical device and, if said message type is indicative of an alert, sending the message to a device integration server; the method characterized by receiving, by the device integration server, the alert message; retrieving, by the device integration server, the text messaging numbers associated with identifying information of the medical device; transmitting said text messaging numbers and text message information according to the alert message to said wireless relay module via a secure wireless wide-area network, WWAN; and said wireless relay module transmitting text message information to said text messaging numbers over said secure wireless wide-area network, WWAN.
A method for operating a furnace for reheating steel products comprising longitudinal walls (1, 2) provided with lateral burners (A, B, C,... N), and transverse end walls, and provided with an inlet and an outlet for the products, with the burners being arranged in successive rows, with the furnace comprising, at the inlet thereof, a recovery area immediately followed, in the direction of travel of the products, by a preheating area, then successive heating areas, with a smoke discharge channel being provided immediately at the furnace inlet, and with the recovery area being traversed by the smoke discharged in this way, flowing in the opposite direction to the movement of the products, with the furnace being so arranged that each product is disposed in such a way as to extend in a direction transverse to the direction of travel, with the furnace being further provided, in the first rows of burners, with at least one row of lateral burners (A1, B1, C1, A2, B2, C2) with flame modulation, capable of being controlled to produce a short flame or a long flame, and control means for ensuring a specific mode of ignition of all or part of the burners, with each product being disposed in such a way as to extend along the width of the furnace, and having to present, at the furnace outlet, a determined temperature profile (P1, P2, P3, P4, P5) between the two ends thereof facing the longitudinal walls (1, 2) of the furnace, characterized in that the burners (A1, A2) of at least the first row, in the direction of travel of the products, operate with a short flame on the side of the product end which must be hotter, and with a long flame on the side of the other product end, in such a way as to initiate a temperature profile (P1, P2, P3, P4, P5) for the product of the same type as the one desired at the furnace outlet, as from the furnace recovery area, by means of the flowing of smokes generated by the burners operating in the recovery area.
Use of a lacquer system for producing a lacquer edge coating on an edge of a lens, wherein the lacquer system comprises at least one first component and one second component and can be hardened by irradiation with light of a wavelength in the range from 0.7 to 1.4 μm; wherein the first component comprises at least one resin component selected from the group comprising epoxy resin, acrylic resin and mixtures thereof, at least one diluent in the form of an organic solvent, and at least one or more fillers; wherein the content of the at least one epoxy resin and/or at least one acrylic resin in the first component amounts to 20 to 65 wt.% relative to the total weight of the first component; the content of the diluent amounts to 5 to 70 wt.% relative to the total weight of the first component; and the content of filler amounts to 2 wt.% or more relative to the total weight of the first component; and wherein the second component comprises at least one crosslinking agent which is selected from the group comprising aliphatic isocyanates, aromatic isocyanates, compounds with amino groups and mixtures thereof.
A module fixing structure applicable to a household energy storage system, comprising: a plurality of modules and at least one first fixing member; wherein the plurality of modules are stacked in at least one stacking direction; in a stacking direction of the at least one stacking direction in which N modules of the plurality of modules are stacked, the first fixing member stretches across M modules of the plurality of modules, only two ends of the first fixing member are fixed to two of the plurality of modules, respectively, and the M modules are located between the two ends of the first fixing member and are not fixedly connected to the first fixing member; wherein N is a positive integer greater than or equal to 3, and M is a positive integer less than or equal to N-2. a plurality of modules and at least one first fixing member; wherein the plurality of modules are stacked in at least one stacking direction; in a stacking direction of the at least one stacking direction in which N modules of the plurality of modules are stacked, the first fixing member stretches across M modules of the plurality of modules, only two ends of the first fixing member are fixed to two of the plurality of modules, respectively, and the M modules are located between the two ends of the first fixing member and are not fixedly connected to the first fixing member; wherein N is a positive integer greater than or equal to 3, and M is a positive integer less than or equal to N-2.
A composition comprising at least the following components: A) an olefin multi-block copolymer, wherein the olefin multi-block copolymer is an ethylene/α-olefin multi-block copolymer; and B) a silicone rubber that comprises pendant vinyl groups and comprises terminal vinyl groups, wherein the silicone rubber has a weight average molecular weight (Mw) ≥ 200,000 g/mole determined as disclosed in the description; and wherein the composition comprises from 10 wt% to 30 wt% of component B, based on the weight of component A and B. A) an olefin multi-block copolymer, wherein the olefin multi-block copolymer is an ethylene/α-olefin multi-block copolymer; and B) a silicone rubber that comprises pendant vinyl groups and comprises terminal vinyl groups, wherein the silicone rubber has a weight average molecular weight (Mw) ≥ 200,000 g/mole determined as disclosed in the description;
Valerian extract for use in the treatment and prophylaxis of GABA A -related disorders selected from the group consisting of anxiety, depression, restlessness and insomnia, wherein the ratio of valerenic acid to acetoxyvalerenic acid in the extract is at least 2:1 by weight.
A tool for removing a component of a turbomachine, comprising: a body including a connection portion configured to engage the component; and a force section connected to the body and configured to transfer a force to the connection portion of the body in a direction at an acute angle relative to a longitudinal axis of a dovetail slot of a rotor wheel (34, 43, 70) of the turbomachine, wherein the component is a near flow path seal (60, 62, 64) and the body is circumferentially sized to either not fit into the dovetail slot or to readily move into and out of the dovetail slot. a body including a connection portion configured to engage the component; and a force section connected to the body and configured to transfer a force to the connection portion of the body in a direction at an acute angle relative to a longitudinal axis of a dovetail slot of a rotor wheel (34, 43, 70) of the turbomachine, wherein the component is a near flow path seal (60, 62, 64) and the body is circumferentially sized to either not fit into the dovetail slot or to readily move into and out of the dovetail slot.
A method for determining an electrical phase relation between antenna elements (160a, 160b) in an antenna array (190a, 190b), the method being performed by a radio transceiver device, the method comprising: obtaining measurements of the radio signal as received in two receive beams (140a, 140b) covering a given angular sector having a width, wherein the receive beams (140a, 140b) have different complex beam patterns, and wherein the complex beam patterns are generated to be adaptable to the width of the angular sector within which the radio signal is to be received; estimating the angle of arrival (α) of the radio signal for at least one polarization port of each of the receive beams (140a, 140b) using the measurements in the two receive beams (140a, 140b); and determining, from the angle of arrival (α) estimated for each polarization port, an electrical phase relation between antenna elements (160a, 160b) in the antenna array (190a, 190b) that corresponds to the estimated angle of arrival (α), wherein each receive beam (140a, 140b) has two polarization ports, and wherein the two polarization ports of each receive beam (140a, 140b) have mutually different polarizations, and wherein the angle of arrival (α) of the radio signal in each of the two polarization ports represents one intermediate value, and wherein the angle of arrival (α) is estimated using a combination of the intermediate values. obtaining measurements of the radio signal as received in two receive beams (140a, 140b) covering a given angular sector having a width, wherein the receive beams (140a, 140b) have different complex beam patterns, and wherein the complex beam patterns are generated to be adaptable to the width of the angular sector within which the radio signal is to be received; estimating the angle of arrival (α) of the radio signal for at least one polarization port of each of the receive beams (140a, 140b) using the measurements in the two receive beams (140a, 140b); and determining, from the angle of arrival (α) estimated for each polarization port, an electrical phase relation between antenna elements (160a, 160b) in the antenna array (190a, 190b) that corresponds to the estimated angle of arrival (α), wherein each receive beam (140a, 140b) has two polarization ports, and wherein the two polarization ports of each receive beam (140a, 140b) have mutually different polarizations, and wherein the angle of arrival (α) of the radio signal in each of the two polarization ports represents one intermediate value, and wherein the angle of arrival (α) is estimated using a combination of the intermediate values.
An apparatus, comprising: a cylinder head defining an exhaust gas recirculation crossover tube integrally formed in the cylinder head, the exhaust gas recirculation crossover tube comprising: a first end fluidly coupled to an exhaust port of an engine; a second end fluidly coupled to an intake port of the engine; a Venturi tube configuration positioned between the first and the second ends; a first sensor port (124, 208) extending through the cylinder head to the exhaust gas recirculation crossover tube, the first sensor port (124, 208) positioned at a restriction of the Venturi tube configuration; a second sensor port (128, 210) extending through the cylinder head to the exhaust gas recirculation crossover tube, the second sensor port (128, 210) positioned proximate the first end; and a differential pressure sensor comprising a first pressure sensor positioned in the first sensor port (124, 208) and a second pressure sensor positioned in the second sensor port (128, 210), a flow rate of exhaust gas through the exhaust gas recirculation crossover tube is determined from pressure measurements from the differential pressure sensor. a cylinder head defining an exhaust gas recirculation crossover tube integrally formed in the cylinder head, the exhaust gas recirculation crossover tube comprising: a first end fluidly coupled to an exhaust port of an engine; a second end fluidly coupled to an intake port of the engine; a Venturi tube configuration positioned between the first and the second ends; a first end fluidly coupled to an exhaust port of an engine; a second end fluidly coupled to an intake port of the engine; a Venturi tube configuration positioned between the first and the second ends; a first sensor port (124, 208) extending through the cylinder head to the exhaust gas recirculation crossover tube, the first sensor port (124, 208) positioned at a restriction of the Venturi tube configuration; a second sensor port (128, 210) extending through the cylinder head to the exhaust gas recirculation crossover tube, the second sensor port (128, 210) positioned proximate the first end; and a differential pressure sensor comprising a first pressure sensor positioned in the first sensor port (124, 208) and a second pressure sensor positioned in the second sensor port (128, 210), a flow rate of exhaust gas through the exhaust gas recirculation crossover tube is determined from pressure measurements from the differential pressure sensor.
Shuttering for use in casting a slab/beam over a substrate, comprising a hollow support structure including a plurality of spaced apart walls (6,7), the support structure being able to be placed on the substrate to support the slab/beam during casting, wherein the support structure is formed with its spaced apart walls (6,7) by a moulding process and is moulded from expanded plastics material and characterized in that the support structure has a first supporting condition in which the depth of the support structure is D and a second collapsed condition in which the depth of the support structure is d, wherein d is less than 0.38D.