mhurhangee/patent-ind-claim-en huggingface dataset:
A system for controlling an electrical load, said system including: - A first power converter (VV 1 ) and a second power converter (VV 2 ) connected in parallel, each power converter including an inverter stage (INV 1 , INV 2 ) with an output connected to the electrical load, - A first control unit (UC 1 ) assigned to controlling the inverter stage (INV 1 ) of the first power converter and a second control unit (UC 2 ) assigned to controlling the inverter stage (INV 2 ) of the second power converter, characterized in that : - The first control unit (UC 1 ) comprises a main control module (M 1_1 ) arranged for determining a first output voltage ( v σ1 ) to be applied to the electrical load, said first output voltage ( v σ1 ) being determined according to the output current ( i σ1 ) of the first power converter, - The second control unit (UC 2 ) comprises a main control module (M 1_2 ) arranged for determining a second output voltage ( v σ2 ) to be applied to the electrical load, said second output voltage ( v σ2 ) being determined from the output current ( i σ2 ) of the second power converter, and a secondary control module (M 2_2 ) arranged for determining a correction voltage ( Δv σk ) to be applied to said second output voltage ( v σ2 ), said correction voltage being determined from the difference between the output current ( i σ2 ) of the second power converter and the output current ( i σ1 ) of the first power converter. - A first power converter (VV 1 ) and a second power converter (VV 2 ) connected in parallel, each power converter including an inverter stage (INV 1 , INV 2 ) with an output connected to the electrical load, - A first control unit (UC 1 ) assigned to controlling the inverter stage (INV 1 ) of the first power converter and a second control unit (UC 2 ) assigned to controlling the inverter stage (INV 2 ) of the second power converter, - The first control unit (UC 1 ) comprises a main control module (M 1_1 ) arranged for determining a first output voltage ( v σ1 ) to be applied to the electrical load, said first output voltage ( v σ1 ) being determined according to the output current ( i σ1 ) of the first power converter, - The second control unit (UC 2 ) comprises a main control module (M 1_2 ) arranged for determining a second output voltage ( v σ2 ) to be applied to the electrical load, said second output voltage ( v σ2 ) being determined from the output current ( i σ2 ) of the second power converter, and a secondary control module (M 2_2 ) arranged for determining a correction voltage ( Δv σk ) to be applied to said second output voltage ( v σ2 ), said correction voltage being determined from the difference between the output current ( i σ2 ) of the second power converter and the output current ( i σ1 ) of the first power converter.
An electromagnetic rotary drive configured as a temple motor, with a rotor , which is contactlessly magnetically drivable, which is configured as coil-free and free of permanent magnets, and which comprises a magnetically effective core and a stator being configured as a bearing and a drive stator, with which the rotor is contactlessly magnetically drivable about a desired axis of rotation in the operating state, and with which the rotor can be contactlessly magnetically levitated with respect to the stator , wherein the stator has a plurality of coil cores , each of them comprising a bar-shaped longitudinal limb extending from a first end in a direction in parallel with a desired axis of rotation up to a second end and a transverse limb being arranged at the second end of the longitudinal limb and extending in a radial direction, which is perpendicular to an axial direction (A) defined by the desired axis of rotation, wherein a plurality of windings is provided for generating an electromagnetic rotational field, each of the windings surrounding one of the longitudinal limbs , characterized in that the stator is configured free of permanent magnets, and that the rotor is configured as a disk-shaped ferromagnetic or ferrimagnetic rotor , which exactly has one preferential magnetic direction (M) extending in a radial direction, and wherein the magnetically effective core of the rotor has a magnetic resistance in the preferential magnetic direction (M), which magnetic resistance is at most half as large as the magnetic resistance in a direction, which stands perpendicular on the preferential magnetic direction (M) and perpendicular on the axial direction (A).
A method for selecting a cropping area in a sequence of images captured by a camera , comprising: correlating first external motion data with internal motion data , by correlating a first external motion datum, taken at a particular point in time, with a first internal motion datum taken at the same point in time, wherein the first external motion data and the internal motion data are obtained during a first time interval, wherein the first external motion data comprises data of external factors affecting movement of the camera and wherein the internal motion data comprises data describing a movement of the camera ; obtaining second external motion data during a second time interval subsequent to the first time interval; and stabilizing a sequence of images being captured during a third time interval, the third time interval being either subsequent to the second time interval or partly overlapping with the second time interval, by selecting a cropping area based on the correlation and the second external motion data , wherein the cropping area remains constant and maximized in size with respect to the field of view of the images in the sequence of images captured by the camera during the third time interval. correlating first external motion data with internal motion data , by correlating a first external motion datum, taken at a particular point in time, with a first internal motion datum taken at the same point in time, wherein the first external motion data and the internal motion data are obtained during a first time interval, wherein the first external motion data comprises data of external factors affecting movement of the camera and wherein the internal motion data comprises data describing a movement of the camera ; obtaining second external motion data during a second time interval subsequent to the first time interval; and stabilizing a sequence of images being captured during a third time interval, the third time interval being either subsequent to the second time interval or partly overlapping with the second time interval, by selecting a cropping area based on the correlation and the second external motion data , wherein the cropping area remains constant and maximized in size with respect to the field of view of the images in the sequence of images captured by the camera during the third time interval.
A liquid photocurable resin composition for stereolithography, comprising: (i) at least one radical polymerizable compound (A) represented by the following general formula (I) R 4 O-CO-NH-R 2 -NH-CO-O-R 1 -O-CO-NH-R 3 -NH-CO-OR 4 (I), wherein R 1 is a linear or branched polytetramethylene glycol residue having an average molecular weight from 200 to 3,000 g/mol; R 2 is a diisocyanate compound residue; R 3 is a diisocyanate compound residue being the same as or different from R 2 ; and R 4 is selected from AcrO-CH 2 -CH 2 -, (AcrO-CH 2 ) 2 CH-, (AcrO-CH 2 ) 3 C-CH 2 -, AcrO-CH 2 -CHCH 3 -, AcrO-CH 2 -CHC 2 H 5 - and (AcrO-CH 2 ) 2 C(C 2 H 5 )CH 2 -, preferably from AcrO-CH 2 -CH 2 - and (AcrO-CH 2 ) 2 CH-, more preferably is AcrO-CH 2 -CH 2 -; wherein Acr is CH 2 =C(R)-CO- and R is a hydrogen atom or a methyl group; (ii) at least one radically polymerizable organic compound (B) different from compound (A); and (iii) a photosensitive radical polymerization initiator (C), wherein the content of said radical polymerizable compound (A) varies from 5% to 70% by weight based on the total amount of compounds (A) and (B). (i) at least one radical polymerizable compound (A) represented by the following general formula (I) R 4 O-CO-NH-R 2 -NH-CO-O-R 1 -O-CO-NH-R 3 -NH-CO-OR 4 (I), wherein R 1 is a linear or branched polytetramethylene glycol residue having an average molecular weight from 200 to 3,000 g/mol; R 2 is a diisocyanate compound residue; R 3 is a diisocyanate compound residue being the same as or different from R 2 ; and R 4 is selected from AcrO-CH 2 -CH 2 -, (AcrO-CH 2 ) 2 CH-, (AcrO-CH 2 ) 3 C-CH 2 -, AcrO-CH 2 -CHCH 3 -, AcrO-CH 2 -CHC 2 H 5 - and (AcrO-CH 2 ) 2 C(C 2 H 5 )CH 2 -, preferably from AcrO-CH 2 -CH 2 - and (AcrO-CH 2 ) 2 CH-, more preferably is AcrO-CH 2 -CH 2 -; wherein Acr is CH 2 =C(R)-CO- and R is a hydrogen atom or a methyl group; (ii) at least one radically polymerizable organic compound (B) different from compound (A); and (iii) a photosensitive radical polymerization initiator (C),
Closure device for a wipe dispenser, having a main body and a cap arranged movably thereon, wherein the main body has a fastening section for fastening the main body on the wipe dispenser, an opening section , which can be completely covered by the cap , and a bottom having a cutout for passing through wipes from the wipe dispenser, wherein the fastening section has at least one first engagement means for connection to the wipe dispenser, wherein a hinge section , in which the cap is held movably on the main body , is arranged between the main body and the cap , and characterized in that at least one stop body extends radially outwards on the hinge section from the cap and is designed to enter into mechanical stop contact with the wipe dispenser when the cap is opened and thereby to limit a possible opening angle (α) of the cap , or at least one stop body extends radially outwards on the hinge section from the main body and is designed to enter into mechanical stop contact with the cap when the cap is opened and thereby to limit a possible opening angle (α) of the cap . wherein the main body has a fastening section for fastening the main body on the wipe dispenser, an opening section , which can be completely covered by the cap , and a bottom having a cutout for passing through wipes from the wipe dispenser, wherein the fastening section has at least one first engagement means for connection to the wipe dispenser, wherein a hinge section , in which the cap is held movably on the main body , is arranged between the main body and the cap , and characterized in that at least one stop body extends radially outwards on the hinge section from the cap and is designed to enter into mechanical stop contact with the wipe dispenser when the cap is opened and thereby to limit a possible opening angle (α) of the cap , or at least one stop body extends radially outwards on the hinge section from the main body and is designed to enter into mechanical stop contact with the cap when the cap is opened and thereby to limit a possible opening angle (α) of the cap .
An illumination system comprising: a light source to generate a light beam; and a spatial encoding pattern generator comprising a plurality of optical elements to encode the imaging beam so as to concurrently illuminate an object by a plurality of different spatial encoding patterns, wherein each encoding pattern of said different encoding patterns is characterized by a distinct wavelength of the imaging pattern, wherein said plurality of optical elements to encode the imaging beam are aligned along an optical path in the following order: a diffraction grating grid, a first lens, an encoding pattern element, and a second lens. a light source to generate a light beam; and a spatial encoding pattern generator comprising a plurality of optical elements to encode the imaging beam so as to concurrently illuminate an object by a plurality of different spatial encoding patterns, wherein each encoding pattern of said different encoding patterns is characterized by a distinct wavelength of the imaging pattern, wherein said plurality of optical elements to encode the imaging beam are aligned along an optical path in the following order: a diffraction grating grid, a first lens, an encoding pattern element, and a second lens.
Closure assembly, in particular for a cupboard , comprising at least one closure element , in particular a roller blind, roller shutters and the like, which is arranged so as to be movable from a closed position (GP) to an open position (OP) and vice versa in the region of an opening of the cupboard , which comprises slat elements , with at least one drive device in operative connection with the closure element via at least one tension element , as well as at least one sliding element and/or at least one deflection element , wherein the drive device comprises a base having at least one drive element and at least one winding element coupled thereto, wherein the winding element comprises at least one circumferential toothing on its circumferential surface, wherein the winding element is operatively connected to at least one first free end of the closure element via at least one first tension element , and is also operatively connected to a second free end of the closure element via at least one first tension element , characterised in that the winding element is in operative connection, by way of its toothing , with the drive element of the drive device , in that the winding element is in operative connection with at least one slat element arranged at at least one second free end of the closure element via at least one first tension element , and in that the winding element is in operative connection with at least one slat element arranged at at least one first free end of the closure element via at least one second tension element and at least one third deflection element .
Installation for processing containers, comprising at least one device for conveying containers, the device having at least one mobile conveying carriage , the conveying carriage having: - a first shuttle able to circulate independently along a guiding rail forming a circuit; - and a member for gripping the container that is mechanically connected to said first shuttle ; wherein the conveying carriage has a second shuttle able to circulate independently of the first shuttle along the circuit, the second shuttle being mounted so as to be able to move on a guiding rail , said gripping member being mechanically connected to each of the first and second shuttles via a mechanism having at least a first rod and a second rod that are articulated in a scissor-like manner to one another, the first rod also being articulated about an axis of rotation on the first shuttle, and the second rod also being articulated about an axis of rotation on the second shuttle, such that the transverse position and the trajectory of the gripping member can be controlled according to the spacing of the two shuttles and their speed of movement; wherein the device has a plurality of carriages that progress along the circuit, characterized in that the installation has a station for processing containers, and in that the first shuttle of each carriage is formed by the second shuttle of the preceding carriage , the carriages thus being connected in a chain via the articulated mechanical connection with the gripping members . - a first shuttle able to circulate independently along a guiding rail forming a circuit; - and a member for gripping the container that is mechanically connected to said first shuttle ;
A material conveyor system container, comprising: an elevator bucket having a back wall , opposed sidewalls , a bottom wall curving upward into a front wall spaced from the back wall , and a wear band ; the front wall being joined to the bottom wall to form an open top; the front wall and bottom wall portions being joined to the opposed sidewalls by arcuate corner parts ; the wear band extending entirely across a top portion of the front wall and integral corner parts to protect the top portion of the front wall and integral corner parts from a flow of material wearing the elevator bucket ; and the wear band extending across a forward portion of a top portion of the opposed sidewalls , and characterized in that the wear band is made of a highly abrasion resistant material and a remainder of the elevator bucket is made of a polyethylene material that is a different polymer than the polymer used for the wear band . an elevator bucket having a back wall , opposed sidewalls , a bottom wall curving upward into a front wall spaced from the back wall , and a wear band ; the front wall being joined to the bottom wall to form an open top; the front wall and bottom wall portions being joined to the opposed sidewalls by arcuate corner parts ; the wear band extending entirely across a top portion of the front wall and integral corner parts to protect the top portion of the front wall and integral corner parts from a flow of material wearing the elevator bucket ; and the wear band extending across a forward portion of a top portion of the opposed sidewalls , and characterized in that the wear band is made of a highly abrasion resistant material and a remainder of the elevator bucket is made of a polyethylene material that is a different polymer than the polymer used for the wear band .
Device designed for the cooling and emptying of the contents of a metal beverage tin wherein the machine comprises: - a cooled housing designed to receive a tin; - a tube projecting into the cooled housing and delimiting an opening , wherein the machine is characterised in that it comprises: - a movable subassembly , including: - a beverage agitator mounted to slide through the tube so that it can pass through the opening , between a high position where it projects above the upper edge of the tube and a position where it is set back relative to the upper edge of the tube; - a pipe having an outlet orifice , and an inlet orifice communicating with said opening; - a stopper blocking or opening selectively the outlet orifice of the pipe. - a cooled housing designed to receive a tin; - a tube projecting into the cooled housing and delimiting an opening , wherein the machine is characterised in that it comprises: - a movable subassembly , including: - a beverage agitator mounted to slide through the tube so that it can pass through the opening , between a high position where it projects above the upper edge of the tube and a position where it is set back relative to the upper edge of the tube; - a pipe having an outlet orifice , and an inlet orifice communicating with said opening; - a stopper blocking or opening selectively the outlet orifice of the pipe. - a movable subassembly , including: - a beverage agitator mounted to slide through the tube so that it can pass through the opening , between a high position where it projects above the upper edge of the tube and a position where it is set back relative to the upper edge of the tube; - a pipe having an outlet orifice , and an inlet orifice communicating with said opening; - a stopper blocking or opening selectively the outlet orifice of the pipe.
Process for the production of allyl alcohol (AAL) comprising the steps: (a) feeding a starting material into a fixed-bed continuous flow reactor over a heterogeneous trimetallic aluminosilicate zeolite catalyst comprising varying amounts of Cs-Fe-Mo, Li-Fe-Mo, Na-Fe-Mo, K-Fe-Mo or Rb-Fe-Mo, wherein these metals can be present as mixed oxides, mixed nitrate salts, mixed fluoride, chloride, bromide or iodide salts, mixed sulfate salts, mixed phosphate salts, mixed carbonate salts or mixed oxalate salts, (b) heating said mixture at a temperature ranging from 250 to 450 °C to obtain allyl alcohol, (c) flowing N 2 as a carrier gas with total gas hourly space velocity 100-2000 h -1 , (d) collecting the AAL product, wherein the starting material is glycerol (GL) solution. (a) feeding a starting material into a fixed-bed continuous flow reactor over a heterogeneous trimetallic aluminosilicate zeolite catalyst comprising varying amounts of Cs-Fe-Mo, Li-Fe-Mo, Na-Fe-Mo, K-Fe-Mo or Rb-Fe-Mo, wherein these metals can be present as mixed oxides, mixed nitrate salts, mixed fluoride, chloride, bromide or iodide salts, mixed sulfate salts, mixed phosphate salts, mixed carbonate salts or mixed oxalate salts, (b) heating said mixture at a temperature ranging from 250 to 450 °C to obtain allyl alcohol, (c) flowing N 2 as a carrier gas with total gas hourly space velocity 100-2000 h -1 , (d) collecting the AAL product,
Apparatus for stabilizing a foundation of a building , wherein said apparatus is adapted to be arranged within said building and comprises: a casing , attachable to the foundation of said building; a jack , attachable to said casing and arranged for pressing hollow pile segments through or adjacent to said casing vertically into the soil to form a substantially vertical hollow pile having a top end and a bottom end and comprising said hollow pile segments ; a percussion device , adapted to be inserted vertically through said hollow pile segments of the hollow pile to a level below the foundation , and adapted for exerting a downward percussive force on the soil at the bottom end of said hollow pile, characterized in that the percussion device is adapted for detachably interlocking with a corresponding interlocking pile segment of the hollow pile , such that when said percussion device is interlocked with said pile segment a downward percussive force exerted by said percussion device causes a substantially equal upward force on said interlocking pile segment . a casing , attachable to the foundation of said building; a jack , attachable to said casing and arranged for pressing hollow pile segments through or adjacent to said casing vertically into the soil to form a substantially vertical hollow pile having a top end and a bottom end and comprising said hollow pile segments ; a percussion device , adapted to be inserted vertically through said hollow pile segments of the hollow pile to a level below the foundation , and adapted for exerting a downward percussive force on the soil at the bottom end of said hollow pile, characterized in that the percussion device is adapted for detachably interlocking with a corresponding interlocking pile segment of the hollow pile , such that when said percussion device is interlocked with said pile segment a downward percussive force exerted by said percussion device causes a substantially equal upward force on said interlocking pile segment .
A controller for an end effector the end effector controlled by four cables of an open loop differential drive mechanism, the controller comprising: primary controller configured to receive a desired pose for the end effector in yaw, pitch, and jaw degrees-of-freedom (DOF), to generate a motor torque for each motor of an instrument drive unit (IDU) to position the end effector in the desired pose, and to transmit the motor torques; characterized in that , a secondary controller configured to receive the motor torques from the primary controller, to generate null torques for each of the motors of the IDU to maintain tension in the cables of the differential drive mechanism; and an IDU configured to receive desired torques which include a sum of the motor torques and the null torques and to manipulate the end effector to the desired pose in response to receiving the desired torques. primary controller configured to receive a desired pose for the end effector in yaw, pitch, and jaw degrees-of-freedom (DOF), to generate a motor torque for each motor of an instrument drive unit (IDU) to position the end effector in the desired pose, and to transmit the motor torques; characterized in that , a secondary controller configured to receive the motor torques from the primary controller, to generate null torques for each of the motors of the IDU to maintain tension in the cables of the differential drive mechanism; and an IDU configured to receive desired torques which include a sum of the motor torques and the null torques and to manipulate the end effector to the desired pose in response to receiving the desired torques.