mhurhangee/ep-ind-claims huggingface dataset:
Method for manufacturing a plurality of electrically heatable heating bodies for an evaporator device for an inhaler, in particular for an electronic cigaratte product, and having at least one passage opening for evaporating liquid contained in the passage opening, characterised by - providing a plate-like semiconductor material, - incorporating a plurality of passage openings extending in the direction of the surface normal of the semiconductor material through the semiconductor material, - separating the semiconductor material along at least one separation line to provide the plurality of heating bodies, and - arranging a number of sealing members (7, 7a, 7b) corresponding to at least the number of heating bodies in such a manner that each passage opening is circumferentially enclosed by a sealing member (7, 7a, 7b). - providing a plate-like semiconductor material, - incorporating a plurality of passage openings extending in the direction of the surface normal of the semiconductor material through the semiconductor material, - separating the semiconductor material along at least one separation line to provide the plurality of heating bodies, and - arranging a number of sealing members (7, 7a, 7b) corresponding to at least the number of heating bodies in such a manner that each passage opening is circumferentially enclosed by a sealing member (7, 7a, 7b).
A method of carrying out a demand response, DR, event via an intelligent, network-connected thermostat associated with a structure, the method comprising: identifying, by the thermostat, a DR event that defines a DR event period; generating a plurality of candidate parameter sets, each parameter set characterizing an associated candidate setpoint schedule during the DR event; simulating each of the candidate setpoint schedules using a model of a heating, ventilation, and air conditioning, HVAC, system that is operable to predict a thermodynamic behavior of the structure; generating predicted indoor temperature profiles and/or HVAC duty cycle schedules for each of the simulated candidate setpoint schedules; applying each of the predicted indoor temperature profiles and/or HVAC duty cycle schedules to a cost function, the cost function comprising a combination of: a first factor representative of a total energy consumption of the HVAC system during the DR event period; a second factor representative of a metric of occupant discomfort in the structure; and a third factor representative of deviations of a rate of energy consumption of the HVAC system over the DR event period; selecting an optimal predicted indoor temperature profile and/or HVAC duty cycle schedule that minimizes the cost function; and controlling, by the thermostat, the HVAC system in accordance with the optimal predicted indoor temperature profile and/or HVAC duty cycle schedule. identifying, by the thermostat, a DR event that defines a DR event period; generating a plurality of candidate parameter sets, each parameter set characterizing an associated candidate setpoint schedule during the DR event; simulating each of the candidate setpoint schedules using a model of a heating, ventilation, and air conditioning, HVAC, system that is operable to predict a thermodynamic behavior of the structure; generating predicted indoor temperature profiles and/or HVAC duty cycle schedules for each of the simulated candidate setpoint schedules; applying each of the predicted indoor temperature profiles and/or HVAC duty cycle schedules to a cost function, the cost function comprising a combination of: a first factor representative of a total energy consumption of the HVAC system during the DR event period; a second factor representative of a metric of occupant discomfort in the structure; and a third factor representative of deviations of a rate of energy consumption of the HVAC system over the DR event period; a first factor representative of a total energy consumption of the HVAC system during the DR event period; a second factor representative of a metric of occupant discomfort in the structure; and a third factor representative of deviations of a rate of energy consumption of the HVAC system over the DR event period; selecting an optimal predicted indoor temperature profile and/or HVAC duty cycle schedule that minimizes the cost function; and controlling, by the thermostat, the HVAC system in accordance with the optimal predicted indoor temperature profile and/or HVAC duty cycle schedule.
A method comprising, by a computing system: capturing, using one or more cameras implemented in a wearable device worn by a user, a first image depicting at least a part of a hand of the user holding a controller in an environment; identifying one or more features of at least the part of the hand of the user depicted in the first image to estimate a pose of the hand of the user; estimating a first pose of the controller based on the pose of the hand of the user and an estimated grip that defines a relative pose between the hand of the user and the controller; receiving inertial measurement unit, IMU, data of the controller; and estimating a second pose of the controller by updating the first pose of the controller using the IMU data of the controller. capturing, using one or more cameras implemented in a wearable device worn by a user, a first image depicting at least a part of a hand of the user holding a controller in an environment; identifying one or more features of at least the part of the hand of the user depicted in the first image to estimate a pose of the hand of the user; estimating a first pose of the controller based on the pose of the hand of the user and an estimated grip that defines a relative pose between the hand of the user and the controller; receiving inertial measurement unit, IMU, data of the controller; and estimating a second pose of the controller by updating the first pose of the controller using the IMU data of the controller.
A treatment machine comprising: a casing; a tub moveably mounted within the casing; a drum (6, 70) rotatably mounted within the tub; a door for loading a substrate into the drum (6, 70), wherein the door is mounted to the casing and operable between open and closed configurations: wherein the treatment machine is configured to dispense solid particles into the drum (6, 70) and to extract solid particles from the drum (6, 70); and wherein the treatment machine further comprises a baffle (10, 40, 50, 60, 90); the baffle comprising: a tub connector portion (12, 42, 52, 62, 82, 92) connecting the baffle to the tub of the treatment machine; a door contacting portion (14, 44, 54, 64, 84, 94) that contacts the door of the treatment machine when the door is in a closed configuration; a barrier (16, 46, 56, 66, 86, 96) extending between the tub connector portion (12, 42, 52, 62, 82, 92) and the door contacting portion (14, 44, 54, 64, 84, 94); and wherein the barrier (16, 46, 56, 66, 86, 96) is inclined so solid particles are diverted by the barrier (16, 46, 56, 66, 86, 96) into the drum (6, 70) of the treatment machine a casing; a tub moveably mounted within the casing; a drum (6, 70) rotatably mounted within the tub; a door for loading a substrate into the drum (6, 70), wherein the door is mounted to the casing and operable between open and closed configurations: wherein the treatment machine is configured to dispense solid particles into the drum (6, 70) and to extract solid particles from the drum (6, 70); and wherein the treatment machine further comprises a baffle (10, 40, 50, 60, 90); the baffle comprising: a tub connector portion (12, 42, 52, 62, 82, 92) connecting the baffle to the tub of the treatment machine; a door contacting portion (14, 44, 54, 64, 84, 94) that contacts the door of the treatment machine when the door is in a closed configuration; a barrier (16, 46, 56, 66, 86, 96) extending between the tub connector portion (12, 42, 52, 62, 82, 92) and the door contacting portion (14, 44, 54, 64, 84, 94); and wherein the barrier (16, 46, 56, 66, 86, 96) is inclined so solid particles are diverted by the barrier (16, 46, 56, 66, 86, 96) into the drum (6, 70) of the treatment machine
A transmitting method in a communication transmitting apparatus supporting two power amplifier operation modes of a compressed mode and an uncompressed mode, the transmitting method comprising: a measuring step of measuring an output power level of a power amplifier; a first mode switching step of switching between the compressed mode and the uncompressed mode with reference to the output power level of the power amplifier; a second mode switching step of switching between the compressed mode and the uncompressed mode without reference to the output power level of the power amplifier; and a selecting step of selecting between performing the first mode switching step and performing the second mode switching step. a measuring step of measuring an output power level of a power amplifier; a first mode switching step of switching between the compressed mode and the uncompressed mode with reference to the output power level of the power amplifier; a second mode switching step of switching between the compressed mode and the uncompressed mode without reference to the output power level of the power amplifier; and a selecting step of selecting between performing the first mode switching step and performing the second mode switching step.
A composition for use in regenerating hyaline cartilage, wherein the composition is suitable for being cured at an affected area by applying it to a cartilage injury lesion and suitable to embed at least one type of cell selected from the group consisting of bone marrow mesenchymal stem cells and bone marrow mesenchymal stromal cells; contains a low endotoxin monovalent metal salt of alginic acid having a weight average molecular weight of 500,000 or more as determined by gel filtration chromatography; has a viscosity of 400 mPa • s to 20000 mPa • s as determined by a rotational viscometer at 20 °C; and has fluidity. is suitable for being cured at an affected area by applying it to a cartilage injury lesion and suitable to embed at least one type of cell selected from the group consisting of bone marrow mesenchymal stem cells and bone marrow mesenchymal stromal cells; contains a low endotoxin monovalent metal salt of alginic acid having a weight average molecular weight of 500,000 or more as determined by gel filtration chromatography; has a viscosity of 400 mPa • s to 20000 mPa • s as determined by a rotational viscometer at 20 °C; and has fluidity.
A construction machine comprising: one or more hydraulic pumps for discharging a working fluid; an engine configured to supply a rotational power to the hydraulic pumps; a hydraulic line through which the working fluid can be discharged by the hydraulic pumps moves; a main control valve provided on the hydraulic line and configured to control supply of the working fluid to a traveling device or one or more of various working devices, which require the working fluid; a bypass cut valve installed at the hydraulic line downstream of the main control valve to open and close the hydraulic line; an automatic warm-up switch configured to generate a warm-up operation signal for raising a temperature of the working fluid before an operation starts; and a control device configured to perform a warm-up operation for increasing the number of revolutions of the engine and opening the bypass cut valve to increase a flow rate along the hydraulic line, when the warm-up operation signal is received from the automatic warm-up switch, characterized in that when the temperature of the working fluid reaches a predetermined reference temperature after the control device increases the number of revolutions of the engine and opens the bypass cut valve, the control device is configured to forcibly adjust the swash plate angle of the hydraulic pump to further increase a flow rate and a pressure of the working fluid moving along the hydraulic line. one or more hydraulic pumps for discharging a working fluid; an engine configured to supply a rotational power to the hydraulic pumps; a hydraulic line through which the working fluid can be discharged by the hydraulic pumps moves; a main control valve provided on the hydraulic line and configured to control supply of the working fluid to a traveling device or one or more of various working devices, which require the working fluid; a bypass cut valve installed at the hydraulic line downstream of the main control valve to open and close the hydraulic line; an automatic warm-up switch configured to generate a warm-up operation signal for raising a temperature of the working fluid before an operation starts; and a control device configured to perform a warm-up operation for increasing the number of revolutions of the engine and opening the bypass cut valve to increase a flow rate along the hydraulic line, when the warm-up operation signal is received from the automatic warm-up switch, characterized in that when the temperature of the working fluid reaches a predetermined reference temperature after the control device increases the number of revolutions of the engine and opens the bypass cut valve, the control device is configured to forcibly adjust the swash plate angle of the hydraulic pump to further increase a flow rate and a pressure of the working fluid moving along the hydraulic line.
Safety device for pressure cooker lid comprising an upper handle, a valve base and a lower handle attached to the body of the cooker; said upper handle being attached to the lid, and this upper handle having a through hole communicating with the outside; said valve base being attached to the lid and this valve base being traversed by a stop valve rod which can move vertically; said stop valve rod having on one inner end which is located under the inner side of the lid, an air evacuation hole communicating with the through hole; said upper handle having a sliding thrust plate which can move towards or away from the edge of the lid of the cooker; a spring being arranged between the thrust plate and the upper handle, said spring having one end which presses against the upper handle and another end which presses against the thrust plate; characterised in that said thrust plate comprises a front part provided with a notch for engaging the stop valve rod; a pressure shoulder being located under said notch, allowing the air evacuation hole of the stop valve rod to communicate without interruption with the inside of the cooker when the lid closes; a positioning structure is also located under the notch to position the thrust plate via the stop valve rod which is raised into high position when the lid is closed.
A prepreg comprising components to, the region that occupies 10% of the average thickness of the prepreg measured from each surface of the prepreg comprising components to, and the following requirement being met:: reinforcement fiber,: an epoxy resin having two or more epoxy groups per molecule,: a compound capable of curing component,: crosslinked resin particles with an refractive index in the range of 1.49 to 1.61, and: carbon black; requirement: the refractive index, n 0, of a cured epoxy resin produced by curing a resin composition comprising component and component, and the refractive index, n 1, of component have the following relationship: 0.92 ≤ n 1 /n 0 ≤ 1.05; wherein component accounts for 1 to 5 parts by mass per 100 parts by mass of component.: reinforcement fiber,: an epoxy resin having two or more epoxy groups per molecule,: a compound capable of curing component,: crosslinked resin particles with an refractive index in the range of 1.49 to 1.61, and: carbon black; requirement: the refractive index, n 0, of a cured epoxy resin produced by curing a resin composition comprising component and component, and the refractive index, n 1, of component have the following relationship: 0.92 ≤ n 1 /n 0 ≤ 1.05; wherein component accounts for 1 to 5 parts by mass per 100 parts by mass of component.
A carbon fiber bicycle wheel comprising: a pair of half hubs, wherein each of the half hubs is a hollow carbon fiber structure to form an axial hole extending along an axis of rotation thereof and includes a flange and an engaging portion disposed at two opposite ends thereof; an axle assembly received in and engaged to the axial holes of the pair of half hubs and adapted to be attached to dropouts on a fork or a frame of a bicycle; wherein the engaging portions of the pair of half hubs are engaged with each other to cause the pair of half hubs formed a bicycle hub; characterized in that each of the flanges includes a plurality of spokes integrally extending radially outward therefrom and connected with a rim. a pair of half hubs, wherein each of the half hubs is a hollow carbon fiber structure to form an axial hole extending along an axis of rotation thereof and includes a flange and an engaging portion disposed at two opposite ends thereof; an axle assembly received in and engaged to the axial holes of the pair of half hubs and adapted to be attached to dropouts on a fork or a frame of a bicycle; wherein the engaging portions of the pair of half hubs are engaged with each other to cause the pair of half hubs formed a bicycle hub; characterized in that each of the flanges includes a plurality of spokes integrally extending radially outward therefrom and connected with a rim.
Centrifugal compressor with a stator which is designed as an inlet stator, in particular for a compressor, with at least one vane having a vane airfoil around which a fluid can flow, with an adjustment device for adjusting the vane, characterized in that a curvature of a profile centre line of the vane airfoil has at least one inflection point, wherein the vane airfoil is designed such that a profile depth of the vane airfoil changes over the span of the latter, wherein the vane airfoil is designed such that a profile thickness changes along with the profile depth that changes over the span of the vane airfoil, such that the profile thickness changes according to the change in profile depth.
A matter elimination catheter comprising: a catheter body extending from a catheter proximal portion to a catheter distal portion, the catheter body including an infusion lumen; a drive shaft disposed within the infusion lumen, the drive shaft configured to provide rotation to at least one rotatable cutter coupled to the drive shaft near the catheter distal portion; a guide wire lumen within the drive shaft; and a guide wire liner within the guide wire lumen of the drive shaft, the guide wire liner having one or more orifices extending through a sidewall of the guide wire liner, wherein the drive shaft is rotatable relative to the guide wire liner. a catheter body extending from a catheter proximal portion to a catheter distal portion, the catheter body including an infusion lumen; a drive shaft disposed within the infusion lumen, the drive shaft configured to provide rotation to at least one rotatable cutter coupled to the drive shaft near the catheter distal portion; a guide wire lumen within the drive shaft; and a guide wire liner within the guide wire lumen of the drive shaft, the guide wire liner having one or more orifices extending through a sidewall of the guide wire liner, wherein the drive shaft is rotatable relative to the guide wire liner.
Method for the preparation of a substrate comprising an anti-adhesive coating obtained from an "anti-adhesive" silicone composition based on preferably at least partly cross-linked silicone oil(s), having modified adhesion properties with respect to its original properties, in which, a substrate is provided, at least partially coated with the abovementioned coating, and the anti-adhesive silicone coating is treated with cold plasma, approximately at atmospheric pressure, in a nitrogen atmosphere optionally doped with less than 1% by weight of one or more of the elements in the group constituted by H 2; N 2 O; Acetylene; SiH 4; CF 4, CO 2, O 2, H 2 O, or in a carbon dioxide atmosphere, optionally doped with less than 1% by weight of one or more of the elements chosen from the group constituted by H 2; N 2 O; Acetylene; SiH 4; CF 4, N 2, O 2, H 2 O.
A lighting device, comprising a light generating part having a substrate and a light source disposed on the substrate; a base including a light emitting part having a light emitting surface for emitting light from the light source, and a reverse surface on a backside of the light emitting surface, and a connector housing part for housing a connector electrically connected to the light source; and a case assembled with the base and housing the light generating part and the connector housing part, wherein the connector housing part is disposed on the reverse surface of the light emitting part and housed in the case, and the base including the light emitting part and the connector housing part is an integral molding and comprising a light transmitting member containing a light diffusing material.
A method for connecting an external device to an Access Point, AP, via a Wireless-Fidelity, Wi-Fi, network, the method comprising: receiving, by a device, device information of the external device from the external device that operates in an AP mode; receiving, by the device, password information from the external device; accessing, by the device, the external device that operates in the AP mode, by using the device information after discontinuing accessing the AP; receiving, by the device, a password input to the device by a user; and providing, by the device, connection information relating to the AP to the external device when the password input to the device by the user corresponds to a password for accessing the external device comprised in the password information, wherein the connection information comprises a password for accessing the AP and, after the connection information is provided to the external device, the AP mode of the external device is terminated, and the connection information is used by the external device for accessing the AP. receiving, by a device, device information of the external device from the external device that operates in an AP mode; receiving, by the device, password information from the external device; accessing, by the device, the external device that operates in the AP mode, by using the device information after discontinuing accessing the AP; receiving, by the device, a password input to the device by a user; and providing, by the device, connection information relating to the AP to the external device when the password input to the device by the user corresponds to a password for accessing the external device comprised in the password information, wherein the connection information comprises a password for accessing the AP and, after the connection information is provided to the external device, the AP mode of the external device is terminated, and the connection information is used by the external device for accessing the AP.
A terminal block unit for an input/output device of a modular process control system, comprising: two slot elements (110, 120) configured to receive two redundant signal conditioning units (400, 410); wherein the terminal block unit is configured to be housed in a pair of two adjacent slot elements of a module termination unit of an input/output device; wherein the terminal block unit provides a parallel connection of the redundant signal conditioning units (400, 410) to a field device. two slot elements (110, 120) configured to receive two redundant signal conditioning units (400, 410); wherein the terminal block unit is configured to be housed in a pair of two adjacent slot elements of a module termination unit of an input/output device; wherein the terminal block unit provides a parallel connection of the redundant signal conditioning units (400, 410) to a field device.