mhurhangee/ep-ind-claims huggingface dataset:
Furniture component with a driven furniture fitting to movably connect two furniture elements (3, 4), and with an electric motor, wherein the furniture fitting can be disposed on a first furniture element of the two furniture elements (3, 4), and is provided to drive the second furniture element by means of the motor, so as to generate motorassisted movement of the second furniture element versus the first furniture element between at least two positions (5, 6), at least in sections, wherein a first position of the two positions (5, 6) is a farther closed position, in which the second furniture element separates a storage space more strictly than in the second position, which is a farther opened position, wherein the motor is configured substantially disk-shaped, and is configured as an electric, brushless motor with a rotor with magnetic elements, and a stator with current-conductible coils is disposed in the rotor, and a rotational axis of the rotor extends through the stator, and that the rotary motion of the motor is converted to movement between the two positions (5, 6), and wherein at least three phases are disposed on the stator, characterized in that at least one sensor is comprised to capture or estimate at least one position of the second furniture element, and that the sensor is coupled with a control, and wherein the control and the sensor is configured and set up to avoid experimental starting of the motor in both directions to find out the position of the motor, and the correct current feed to the coils dependent thereon. wherein a first position of the two positions (5, 6) is a farther closed position, in which the second furniture element separates a storage space more strictly than in the second position, which is a farther opened position, wherein the motor is configured substantially disk-shaped, and is configured as an electric, brushless motor with a rotor with magnetic elements, and a stator with current-conductible coils is disposed in the rotor, and a rotational axis of the rotor extends through the stator, and that the rotary motion of the motor is converted to movement between the two positions (5, 6), and wherein at least three phases are disposed on the stator, characterized in that at least one sensor is comprised to capture or estimate at least one position of the second furniture element, and that the sensor is coupled with a control, and wherein the control and the sensor is configured and set up to avoid experimental starting of the motor in both directions to find out the position of the motor, and the correct current feed to the coils dependent thereon.
A child safety seat comprising: a seat shell for receiving a child, the seat shell having a backrest, a front end opposite to the backrest, and a seat portion extending between the backrest and the front end; an extension member disposed adjacent to the front end of the seat shell, the extension member being slidably connected with the seat shell and having a forward end, the extension member being slidable relative to the seat shell to increase or reduce a distance between the forward end of the extension member and the front end of the seat shell; an extension locking mechanism operable to lock the extension member with respect to the seat shell; characterised by an anti-rebound part installable on and removable from the extension member, the child safety seat being installable on a vehicle seat in a rear facing position with the anti-rebound part restrictedly positioned on the extension member and adjacent to a seatback of the vehicle seat. a seat shell for receiving a child, the seat shell having a backrest, a front end opposite to the backrest, and a seat portion extending between the backrest and the front end; an extension member disposed adjacent to the front end of the seat shell, the extension member being slidably connected with the seat shell and having a forward end, the extension member being slidable relative to the seat shell to increase or reduce a distance between the forward end of the extension member and the front end of the seat shell; an extension locking mechanism operable to lock the extension member with respect to the seat shell; characterised by an anti-rebound part installable on and removable from the extension member, the child safety seat being installable on a vehicle seat in a rear facing position with the anti-rebound part restrictedly positioned on the extension member and adjacent to a seatback of the vehicle seat.
Crystal form A of the complex of formula, wherein the crystal is a crystal of monohydrate, and the crystal has an X-ray powder diffraction spectrum, which is obtained by using Cu-Ka radiation and represented by 2θ angle and interplanar distance, in which there are characteristic peaks at about 5.41 (16.33), 7.69 (11.49), 10.22 (8.65), 12.04 (7.35), 12.46 (7.10), 14.42 (6.14), 17.30 (5.12), 18.79 (4.72), 19.38 (4.58), 20.24 (4.38), 22.73 (3.91), 24.58 (3.62), 27.55 (3.24), 28.82 (3.10) and 31.03 (2.88); or at about 5.50 (16.07), 7.82 (11.30), 8.64 (10.22), 10.33 (8.55), 12.18 (7.26), 12.49 (7.08), 14.47 (6.11), 15.51 (5.71), 15.89 (5.57), 17.28 (5.13), 18.89 (4.70), 19.39 (4.58), 20.40 (4.35), 22.85 (3.89), 23.89 (3.72), 25.93 (3.43), 27.66 (3.22), 28.97 (3.08) and 31.16 (2.87), as shown in Figure 1.
An apparatus for notching an electrode sheet, which continuously notches a non-coating portion of the electrode sheet so as to be processed as an electrode tab, the apparatus comprising: a transfer unit comprising first and second transfer rollers (110, 120) provided on a bottom surface of the electrode sheet to continuously transfer the electrode sheet at regular intervals; a jig unit provided on a lower portion of the electrode sheet, disposed between the first and second transfer rollers (110, 120), and supporting the bottom surface of the non-coating portion; and a notching unit provided on an upper portion of the electrode sheet to notch the non-coating portion supported on the jig unit so as to be provided as the electrode tab, wherein the jig unit comprises: a rotation member provided between the first and second transfer rollers (110, 120) and rotated in a direction perpendicular to a transfer direction of the electrode sheet; and two or more jigs provided on an outer circumferential surface of the rotation member to support the non-coating portion disposed between the first and second transfer rollers (110, 120) when the rotation member is rotated. a transfer unit comprising first and second transfer rollers (110, 120) provided on a bottom surface of the electrode sheet to continuously transfer the electrode sheet at regular intervals; a jig unit provided on a lower portion of the electrode sheet, disposed between the first and second transfer rollers (110, 120), and supporting the bottom surface of the non-coating portion; and a notching unit provided on an upper portion of the electrode sheet to notch the non-coating portion supported on the jig unit so as to be provided as the electrode tab, wherein the jig unit comprises: a rotation member provided between the first and second transfer rollers (110, 120) and rotated in a direction perpendicular to a transfer direction of the electrode sheet; and two or more jigs provided on an outer circumferential surface of the rotation member to support the non-coating portion disposed between the first and second transfer rollers (110, 120) when the rotation member is rotated. a rotation member provided between the first and second transfer rollers (110, 120) and rotated in a direction perpendicular to a transfer direction of the electrode sheet; and two or more jigs provided on an outer circumferential surface of the rotation member to support the non-coating portion disposed between the first and second transfer rollers (110, 120) when the rotation member is rotated.
A system for adjusting positions of gas turbine inlet guide vanes (IGVs) and variable stator vanes (VSVs), the system comprising: a hydraulic power unit providing a supply of hydraulic fluid; an IGV servo in fluid communication with the hydraulic power unit; a VSV servo in fluid communication with the hydraulic power unit; an IGV cylinder set in fluid communication with the hydraulic power unit via the IGV servo and connected to the IGVs, the IGV cylinder set effecting displacement of the IGVs between a closed position and a fully open position; and a VSV cylinder set in fluid communication with the hydraulic power unit via the VSV servo, the VSVs including multiple stages linked together with a torque shaft, wherein VSV cylinder set is connected to the torque shaft, and wherein the VSV cylinder set effects simultaneous displacement of the stages of the VSVs between a closed position and a fully open position, wherein the IGV servo and the VSV servo respectively control delivery of hydraulic fluid from the hydraulic power unit to the IGV cylinder set and the VSV cylinder set, and wherein the IGV servo and the VSV servo are independently controllable; characterized by the system further comprising trip valves cooperable with each of the IGV servo and the VSV servo, each of the trip valves being activated to bypass the IGV and VSV servos, respectively, and close the IGVs and the VSVs. a hydraulic power unit providing a supply of hydraulic fluid; an IGV servo in fluid communication with the hydraulic power unit; a VSV servo in fluid communication with the hydraulic power unit; an IGV cylinder set in fluid communication with the hydraulic power unit via the IGV servo and connected to the IGVs, the IGV cylinder set effecting displacement of the IGVs between a closed position and a fully open position; and a VSV cylinder set in fluid communication with the hydraulic power unit via the VSV servo, the VSVs including multiple stages linked together with a torque shaft, wherein VSV cylinder set is connected to the torque shaft, and wherein the VSV cylinder set effects simultaneous displacement of the stages of the VSVs between a closed position and a fully open position,
A test strip assembly for detecting the possible presence of at least one analyte in a sample, comprising: a test strip for immobilizing at least one capture agent and detecting the analyte, if present, at a test site on the test strip; a sample sorbent strip having a first location for receiving the sample and a connecting portion for connecting the first location with a second location, the connecting portion defining a sample flow path to the second location; a reagent sorbent strip having a first location for receiving a reaction reagent for analyte detection reaction and a connecting portion for connecting the first location with a second location, the connecting portion defining a reagent flow path to the second location; a flow separator to prevent the sample flow path and the reagent flow path from mixing before reaching the test strip; wherein at least a portion of the test strip, the second location of the sample sorbent strip and the second location of the reagent sorbent strip intersect with each other at an intersection, wherein the second location of the sample sorbent strip and the second location of the reagent sorbent strip each form at the intersection a flow path directing the sample flow path and the reagent flow path towards the test strip in the same direction, wherein the sample sorbent strip and the reagent sorbent strip contact the test strip at the same or at separate locations. a test strip for immobilizing at least one capture agent and detecting the analyte, if present, at a test site on the test strip; a sample sorbent strip having a first location for receiving the sample and a connecting portion for connecting the first location with a second location, the connecting portion defining a sample flow path to the second location; a reagent sorbent strip having a first location for receiving a reaction reagent for analyte detection reaction and a connecting portion for connecting the first location with a second location, the connecting portion defining a reagent flow path to the second location; a flow separator to prevent the sample flow path and the reagent flow path from mixing before reaching the test strip; wherein at least a portion of the test strip, the second location of the sample sorbent strip and the second location of the reagent sorbent strip intersect with each other at an intersection, wherein the second location of the sample sorbent strip and the second location of the reagent sorbent strip each form at the intersection a flow path directing the sample flow path and the reagent flow path towards the test strip in the same direction, wherein the sample sorbent strip and the reagent sorbent strip contact the test strip at the same or at separate locations.
A process for producing a compound of formula wherein R is alkyl optionally substituted with one or more fluorine atoms: CH 2 =CF-C(=O)-OR comprising reacting, at a temperature of 60-120°C, a compound of the formula CH 2 =CF-X wherein X is Br or Cl with an alcohol of the formula R-OH wherein R is as defined above and carbon monoxide in the presence of a transition metal catalyst and a base to obtain the compound of formula.
A canopy configured to be mounted to a passenger seat of a passenger transport vehicle, in particular an aircraft, the canopy being foldable between a retracted storage configuration and an extended operational configuration; wherein the canopy, in the operational configuration, forms a hood establishing a passenger's personal space below the canopy; and wherein the canopy comprises a foldable upper sheet and a foldable lower sheet defining an internal space in between the two sheets (4, 6) when the canopy is in its operational configuration; and at least one functional device (18, 30) which is configured for modifying a physical characteristics of the personal space; wherein the at least one functional device (18, 30) in particular includes at least one of a lighting device configured for lighting the personal space by emitting light into the internal space formed between the two sheets when the canopy is in its operational configuration; and a venting device configured for venting the personal space by blowing air into the internal space formed between the two sheets when the canopy is in its operational configuration. wherein the canopy, in the operational configuration, forms a hood establishing a passenger's personal space below the canopy; and wherein the canopy comprises a foldable upper sheet and a foldable lower sheet defining an internal space in between the two sheets (4, 6) when the canopy is in its operational configuration; and at least one functional device (18, 30) which is configured for modifying a physical characteristics of the personal space; wherein the at least one functional device (18, 30) in particular includes at least one of a lighting device configured for lighting the personal space by emitting light into the internal space formed between the two sheets when the canopy is in its operational configuration; and a venting device configured for venting the personal space by blowing air into the internal space formed between the two sheets when the canopy is in its operational configuration.
Propulsion system for cart type vehicles, hereinafter referred to as carts comprising a self-balancing scooter, or hoverboard, which is a transport means for the driver, such that the hoverboard is attachable to the rear of a cart by means of an articulated structure for propelling and speed control; the propulsion system, comprising: - two control arms (31, 32); - one or more anchor points mountable on the chassis of said cart; - two bindings (21, 22) on both sides of the hoverboard, each one integrally mountable on one of the two foot placement platforms (201, 202) of the hoverboard; wherein: - each of said bindings (21, 22) has at least one connecting point (211, 221) located above the foot placement area of the corresponding foot placement platform (201, 202) of the hoverboard; - each of the control arms (31, 32) is provided with at least one first connecting element (311, 321) at one of its ends, and, at its other end, with at least one second connecting element (312, 322); - each control arm (31, 32) is connected to its corresponding binding (21, 22) through a first joint (1231, 1232) where a connecting point (211, 221) is joined to said first connecting element (311, 321); - each control arm (31, 32) connectable to the cart through a second joint (2131, 2132) connecting one of said anchor points with said second connecting element (312, 322); characterized in that: both first joints (1231, 1232) are articulated and both second joints (2131, 2132), which may coincide in a single anchor point, are articulated and can be located sufficiently centered with respect to the wheels of the cart such that both control arms (31, 32) geometrically converge from each side of the hoverboard in the direction to the cart. - two control arms (31, 32); - one or more anchor points mountable on the chassis of said cart; - two bindings (21, 22) on both sides of the hoverboard, each one integrally mountable on one of the two foot placement platforms (201, 202) of the hoverboard; - each of said bindings (21, 22) has at least one connecting point (211, 221) located above the foot placement area of the corresponding foot placement platform (201, 202) of the hoverboard; - each of the control arms (31, 32) is provided with at least one first connecting element (311, 321) at one of its ends, and, at its other end, with at least one second connecting element (312, 322); - each control arm (31, 32) is connected to its corresponding binding (21, 22) through a first joint (1231, 1232) where a connecting point (211, 221) is joined to said first connecting element (311, 321); - each control arm (31, 32) connectable to the cart through a second joint (2131, 2132) connecting one of said anchor points with said second connecting element (312, 322); both first joints (1231, 1232) are articulated and both second joints (2131, 2132), which may coincide in a single anchor point, are articulated and can be located sufficiently centered with respect to the wheels of the cart such that both control arms (31, 32) geometrically converge from each side of the hoverboard in the direction to the cart.
A patient support (10; 110) comprising: a plurality of stacked layers of cushioning material, at least two of the stacked layers having a different firmness, and at least one of the stacked layers including a gel layer (40; 140), wherein the gel layer is formed by a plurality of intersecting gel walls (40b; 140b), the gel walls forming spaces there between, at least some of the spaces each having a foam body inserted therein to reinforce the adjacent gel walls (40b; 140b) so that immersion response of the gel layer (40; 140) is modified to provide a more gradual immersion into the support.
A system for breath delivery comprising: - a Patient-Tubing system coupled with an outlet of a gas delivery system for conveying gas to a patient during gas-supplemented inhalations, said Patient-Tubing system being connectable to the patient for use; - a flow sensor coupled with said outlet for sensing the gas flow, - a Patient-Tubing system pressure sensor coupled with said Patient-Tubing system for sensing gas pressure therein and providing Patient-Tubing system pressure signals representative thereof; - a processor coupled with said sensors and operable for receiving said signals therefrom, said processor being arranged for - obtaining, during one sample interval, flow information Q exh from said flow sensor, - obtaining, during the one sample interval, pressure information P y from said Patient-Tubing system pressure sensor, - calculating for the one sample interval, based on the Tubing compliance C tube and the derivative of the pressure information P y from said Patient-Tubing system pressure sensor, the Patient-Tubing system flow Q tube, - calculating for the one sample interval, based on the calculated Patient-Tubing system flow Q tube and on the flow information Q exh from said flow sensor, the amount of gas Q v needed to compensate for gas lost in pressurization of the Patient-Tubing system and gas lost through leakages in the Patient-Tubing system. - a Patient-Tubing system coupled with an outlet of a gas delivery system for conveying gas to a patient during gas-supplemented inhalations, said Patient-Tubing system being connectable to the patient for use; - a flow sensor coupled with said outlet for sensing the gas flow, - a Patient-Tubing system pressure sensor coupled with said Patient-Tubing system for sensing gas pressure therein and providing Patient-Tubing system pressure signals representative thereof; - a processor coupled with said sensors and operable for receiving said signals therefrom, said processor being arranged for - obtaining, during one sample interval, flow information Q exh from said flow sensor, - obtaining, during the one sample interval, pressure information P y from said Patient-Tubing system pressure sensor, - calculating for the one sample interval, based on the Tubing compliance C tube and the derivative of the pressure information P y from said Patient-Tubing system pressure sensor, the Patient-Tubing system flow Q tube, - calculating for the one sample interval, based on the calculated Patient-Tubing system flow Q tube and on the flow information Q exh from said flow sensor, the amount of gas Q v needed to compensate for gas lost in pressurization of the Patient-Tubing system and gas lost through leakages in the Patient-Tubing system.