mhurhangee/patent-ind-claim-en huggingface dataset:
Method for the optical recognition of characters displayed on a display , wherein image data are obtained by optically focussing on objects at a maximum distance of 1 metre, which image data contain a representation of the display , said method comprising the following steps: a) detecting a display area of the display in the image data obtained; b) processing the image data representing the detected display area; c) carrying out optical character recognition on the basis of the processed image data; and d) storing the characters recognised in the optical character recognition in a memory ; wherein, for the detection of the display area, at least one contour represented in the image data, which corresponds to a polygonal chain given by a sequence of image points, is detected such that, when there are a plurality of detected contours , the contour having the largest enclosed area of which the number of image points corresponds to a predetermined number of corner points of the display is detected as the contour of the display area, wherein, for the processing of the image data representing the display area, a section corresponding to the detected display area is selected from the originally obtained image data, and wherein, after the display area has been detected and before the optical character recognition is carried out, only the image data of the selected section are processed, wherein the processing of these image data includes a perspective distortion of the detected display area in the section being corrected and/or these image data being preprocessed using an adaptive threshold value method. a) detecting a display area of the display in the image data obtained; b) processing the image data representing the detected display area; c) carrying out optical character recognition on the basis of the processed image data; and d) storing the characters recognised in the optical character recognition in a memory ; wherein, for the detection of the display area, at least one contour represented in the image data, which corresponds to a polygonal chain given by a sequence of image points, is detected such that, when there are a plurality of detected contours , the contour having the largest enclosed area of which the number of image points corresponds to a predetermined number of corner points of the display is detected as the contour of the display area, wherein, for the processing of the image data representing the display area, a section corresponding to the detected display area is selected from the originally obtained image data, and wherein, after the display area has been detected and before the optical character recognition is carried out, only the image data of the selected section are processed, wherein the processing of these image data includes a perspective distortion of the detected display area in the section being corrected and/or these image data being preprocessed using an adaptive threshold value method.
A device for force monitoring in a tool for fixing a tension clamp, the tool having a pair of levers pivotable about parallel axes carrying at their ends plier jaws that can be moved toward each other and act on the clamp, characterized by a pair of power transmission arms , each of which is elastically articulated at one end to a housing that is fixed relative to the tool, has at the other end a contact surface for a force sensor connected to the housing and has, between its ends, a bore in which the axis of the relevant tool lever is supported.
A medical device for modifying a left atrial appendage of a heart, the medical device comprising: an anchor portion including anchor frame segments , each anchor frame segment extending between a first end and a second end, the second end of each anchor frame segment coupled to an anchor hub ; and an occluder portion including a hub , the hub defining an axis), the occluder portion including multiple occluder frame segments extending between a proximal end and a distal end, the proximal end of the occluder frame segments pivotably coupled to the hub , the distal end of the occluder frame segments pivotably coupled to the first end of the anchor frame segments , wherein the occluder frame segments extend in a cup-like configuration defining an outer side surface or convex configuration and an inner side surface exhibiting a concave configuration; and a tissue growth member having a cup-like configuration, wherein the outer side surface of the occluder frame segments is attached to the tissue growth member , the tissue growth member comprises a first layer , a second layer , and a third layer , the first layer of the tissue growth member attached to the outer side surface of the occluder frame segments and characterised by the third layer being larger than both the first and second layers such that the third layer extends more distal than the first layer . an anchor portion including anchor frame segments , each anchor frame segment extending between a first end and a second end, the second end of each anchor frame segment coupled to an anchor hub ; and an occluder portion including a hub , the hub defining an axis), the occluder portion including multiple occluder frame segments extending between a proximal end and a distal end, the proximal end of the occluder frame segments pivotably coupled to the hub , the distal end of the occluder frame segments pivotably coupled to the first end of the anchor frame segments , wherein the occluder frame segments extend in a cup-like configuration defining an outer side surface or convex configuration and an inner side surface exhibiting a concave configuration; and a tissue growth member having a cup-like configuration, wherein the outer side surface of the occluder frame segments is attached to the tissue growth member , the tissue growth member comprises a first layer , a second layer , and a third layer , the first layer of the tissue growth member attached to the outer side surface of the occluder frame segments and characterised by the third layer being larger than both the first and second layers such that the third layer extends more distal than the first layer .
A curtain airbag device having an airbag that is mountable along a roof side rail (RSR) of a vehicle in a vehicle longitudinal direction of the vehicle so as to configured to be stored in the vehicle and that is configured to be deployed in a curtain-like manner along a side window in a vehicle compartment by a gas generated by an inflator in case of emergency, the curtain airbag device comprising: a cover cloth that is provided at the airbag which is folded, the cover cloth being wound to cover at least part of an outer circumference of the airbag that extends in a longitudinal direction of the airbag ; and a first folded-back part that is provided at the cover cloth , the first folded-back part being configured by folding back one end of the cover cloth in a circumferential direction of the outer circumference of a cross section, which is perpendicular to the longitudinal direction, of the folded airbag , wherein an edge of the outer circumference of the folded airbag is held between the first folded-back part and the other end of the cover cloth , characterized in that the folded airbag is configured by folding back the airbag in a bellows-like manner, wherein the airbag that is folded back in the bellows-like manner has a third folded-back part at one end of the bellows-like folded airbag , and the third folded-back part is configured by folding back an edge of the folded airbag so as to cover part of an outside of the folded airbag , and the first folded-back part of the cover cloth is inserted into a gap between a main body of the airbag that is folded back in the bellows-like manner and the third folded-back part . a cover cloth that is provided at the airbag which is folded, the cover cloth being wound to cover at least part of an outer circumference of the airbag that extends in a longitudinal direction of the airbag ; and a first folded-back part that is provided at the cover cloth , the first folded-back part being configured by folding back one end of the cover cloth in a circumferential direction of the outer circumference of a cross section, which is perpendicular to the longitudinal direction, of the folded airbag , wherein an edge of the outer circumference of the folded airbag is held between the first folded-back part and the other end of the cover cloth , characterized in that the folded airbag is configured by folding back the airbag in a bellows-like manner, wherein the airbag that is folded back in the bellows-like manner has a third folded-back part at one end of the bellows-like folded airbag , and the third folded-back part is configured by folding back an edge of the folded airbag so as to cover part of an outside of the folded airbag , and the first folded-back part of the cover cloth is inserted into a gap between a main body of the airbag that is folded back in the bellows-like manner and the third folded-back part .
A glass plate made of soda lime silica glass containing at least SiO 2 , MgO, CaO, Na 2 O and Al 2 O 3 produced by a float process, which contains from 60 to 75% of SiO 2 , at least 0.5% of Al 2 O 3 , from 10 to 20% of Na 2 O, from 4.5 to 15% of MgO, from 1 to 10% of CaO, from 0 to 1% of B 2 O 3 , from 0 to 3% of K 2 O, and wherein the content of the total iron calculated as Fe 2 O 3 is from 0.01 to 0.04%, as represented by mass percentage based on oxide, wherein the ratio of the content of MgO, as represented by mass percentage based on oxide, to the content of CaO, as represented by mass percentage based on oxide, ([MgO]/[CaO]), is at least 1.25 and at most 30, and value Q obtained by the following formula is at least 25: Q = MgO / CaO × CaO + Na 2 O − Al 2 O 3 wherein [MgO] is the content of MgO, as represented by mass percentage based on oxide, [CaO] is the content of CaO, as represented by mass percentage based on oxide, [Na 2 O] is the content of Na 2 O, as represented by mass percentage based on oxide, and [Al 2 O 3 ] is the content of Al 2 O 3 , as represented by mass percentage based on oxide, and wherein the glass plate does not contain TiO 2 , CoO, Cr 2 O 3 , V 2 O 5 or MnO or contains TiO 2 , CoO, Cr 2 O 3 , V 2 O 5 or MnO as an impurity unavoidably included in the production.
A rotating electrical machine for a vehicle, comprising: a rotator , which is configured to be rotated about an axis; a stator , which is arranged coaxially with the rotator , and includes stator winding ; a casing , which is configured to support the rotator and the stator ; and a rectifier , which is fixed to a fixing portion of the casing , the rectifier including: a rectifier element ; a heat sink to which the rectifier element is mounted, the heat sink being arranged so as to be opposed to the casing along an axial direction; and a circuit board , which is configured to electrically connect a stator lead routed out of the stator winding to the rectifier element , the heat sink including: an element mounting portion , to which the rectifier element is mounted; and an axial fin protruding radially outward from the element mounting portion , the circuit board including a stator lead guide configured to guide the stator lead , characterized in that one of the axial fin and the casing includes formed thereon a supporting portion configured to support the axial fin on the casing along the axial direction, the supporting portion being arranged at a position away from the fixing portion so as to be adjacent to the stator lead guide when the rectifier is viewed along the axial direction. a rotator , which is configured to be rotated about an axis; a stator , which is arranged coaxially with the rotator , and includes stator winding ; a casing , which is configured to support the rotator and the stator ; and a rectifier , which is fixed to a fixing portion of the casing , the rectifier including: a rectifier element ; a heat sink to which the rectifier element is mounted, the heat sink being arranged so as to be opposed to the casing along an axial direction; and a circuit board , which is configured to electrically connect a stator lead routed out of the stator winding to the rectifier element , a rectifier element ; a heat sink to which the rectifier element is mounted, the heat sink being arranged so as to be opposed to the casing along an axial direction; and a circuit board , which is configured to electrically connect a stator lead routed out of the stator winding to the rectifier element , the heat sink including: an element mounting portion , to which the rectifier element is mounted; and an axial fin protruding radially outward from the element mounting portion , the circuit board including a stator lead guide configured to guide the stator lead , characterized in that one of the axial fin and the casing includes formed thereon a supporting portion configured to support the axial fin on the casing along the axial direction, the supporting portion being arranged at a position away from the fixing portion so as to be adjacent to the stator lead guide when the rectifier is viewed along the axial direction.
A pet food composition comprising a glucose anti-metabolite and a source of selenium, wherein the composition is a nutritionally balanced pet food composition, wherein the source of selenium is an ingredient having at least 100 μg selenium per 100 g of the ingredient or an inorganic source of selenium; wherein the glucose anti-metabolite comprises a glucose anti-metabolite component selected from the group consisting of 2-deoxy-D- glucose; 5-thio-D-glucose; 3-O-methylglucose; 1,5-anhydro-D-glucitol; 2,5-anhydro-D-glucitol; 2,5-anhydro-D-mannitol; mannoheptulose; and mixtures and combinations thereof; and wherein the selenium content provided by the source of selenium is 1.25 to 10.0 μg per g of the composition.
A method for causing one or more stage elements to be arranged on a performance stage , the method comprising: determining a current arrangement for a first stage element on the performance stage ; determining a desired arrangement for the first stage element on the performance stage ; and activating one or more indicators of a plurality of indicators mechanically coupled to the first stage element to indicate how to alter the current arrangement of the first stage element on the performance stage to reflect the desired arrangement of the first stage element on the performance stage , each of the plurality of indicators indicating a different direction in which the stage element should be repositioned or reoriented, or transmitting one or more motor control signals to at least one mechanical actuator that is coupled to the first stage element to cause the first stage element to autonomously move from a first position on a plane of the performance stage to a second position on the plane of the performance stage or both from the first position and a first orientation on the plane of the performance stage to the second position and a second orientation on the plane of the performance stage to reflect the desired arrangement of the first stage element on the performance stage , wherein the first stage element is a drum monitor, a stage box, a public address speaker, a monitor, or a microphone. determining a current arrangement for a first stage element on the performance stage ; determining a desired arrangement for the first stage element on the performance stage ; and activating one or more indicators of a plurality of indicators mechanically coupled to the first stage element to indicate how to alter the current arrangement of the first stage element on the performance stage to reflect the desired arrangement of the first stage element on the performance stage , each of the plurality of indicators indicating a different direction in which the stage element should be repositioned or reoriented, or transmitting one or more motor control signals to at least one mechanical actuator that is coupled to the first stage element to cause the first stage element to autonomously move from a first position on a plane of the performance stage to a second position on the plane of the performance stage or both from the first position and a first orientation on the plane of the performance stage to the second position and a second orientation on the plane of the performance stage to reflect the desired arrangement of the first stage element on the performance stage , wherein the first stage element is a drum monitor, a stage box, a public address speaker, a monitor, or a microphone.
Reclosure system comprising a bottle and a reversible lid, wherein the bottle (100a-100e) comprises a bottle neck (4a-4e) having an axial extension and a mouth (6a-6e) providing access to the interior of the bottle (100a-100e), and said bottle neck (4a-4e) further comprising a circumferential wall portion (5a-5e) being provided with a first locking means (7a-7e), and the reversible lid (200a-200e) being configured to be removably connected to the bottle neck (4a-4e), wherein a first side (21a-21e) of the reversible lid (200a-200f) comprises a collar (23a-23e) comprising a second locking means (27a-27e) configured to selectively allow the reversible lid (200a-200e) to sealingly close off the mouth (6a-6e) of the bottle neck (4a-4e) by the second locking means (27a-27e) engaging the first locking means (7a-7e) of the bottle neck (4a-4e), and a second side (22a-22e) of the reversible lid (200a-200e), opposite the first side (21a-21e), comprising a third locking means (30a-30e) configured to selectively engage the bottle neck (4a-4e); whereby in a condition when the third locking means (30a-30e) engages the bottle neck (4a-4e), a through-going venting hole (8a-8e) is defined in an interface between the reversible lid (200a-200e) and the bottle neck (4a-4e), said through-going venting hole (8a-8e) allowing a communication (A; B) between the interior of the bottle (100a-100e) and the ambience. the bottle (100a-100e) comprises a bottle neck (4a-4e) having an axial extension and a mouth (6a-6e) providing access to the interior of the bottle (100a-100e), and said bottle neck (4a-4e) further comprising a circumferential wall portion (5a-5e) being provided with a first locking means (7a-7e), and the reversible lid (200a-200e) being configured to be removably connected to the bottle neck (4a-4e), wherein a first side (21a-21e) of the reversible lid (200a-200f) comprises a collar (23a-23e) comprising a second locking means (27a-27e) configured to selectively allow the reversible lid (200a-200e) to sealingly close off the mouth (6a-6e) of the bottle neck (4a-4e) by the second locking means (27a-27e) engaging the first locking means (7a-7e) of the bottle neck (4a-4e), and a second side (22a-22e) of the reversible lid (200a-200e), opposite the first side (21a-21e), comprising a third locking means (30a-30e) configured to selectively engage the bottle neck (4a-4e); whereby in a condition when the third locking means (30a-30e) engages the bottle neck (4a-4e), a through-going venting hole (8a-8e) is defined in an interface between the reversible lid (200a-200e) and the bottle neck (4a-4e), said through-going venting hole (8a-8e) allowing a communication (A; B) between the interior of the bottle (100a-100e) and the ambience.
An optoelectronic apparatus , comprising: a heat sink , which is shaped to define a base , a first platform at a first elevation above the base, and a second platform alongside the first platform at a second elevation above the base, which is different from the first elevation; a first monolithic emitter array , which is mounted on the first platform and is configured to emit first optical beams; a second monolithic emitter array , which is mounted on the second platform and is configured to emit second optical beams; and an optical element configured to direct both the first and the second optical beams with different divergences toward a target region. a heat sink , which is shaped to define a base , a first platform at a first elevation above the base, and a second platform alongside the first platform at a second elevation above the base, which is different from the first elevation; a first monolithic emitter array , which is mounted on the first platform and is configured to emit first optical beams; a second monolithic emitter array , which is mounted on the second platform and is configured to emit second optical beams; and an optical element configured to direct both the first and the second optical beams with different divergences toward a target region.
Compounds of the formula (X) in which A, B and the carbon atom to which they are attached are saturated C 6 cycloalkyl in which one ring member is replaced by oxygen or A, B and the carbon atom to which they are attached are saturated C 6 cycloalkyl that is doubly substituted by fluorine or singly substituted by methoxy, or A, B and the carbon atom to which they are attached are C 6 cycloalkyl that is substituted by an alkylenediyl group containing two oxygen atoms that are not directly adjacent, with said group forming a further five-membered ring with the carbon atom to which it is attached, G is hydrogen (a) or wherein R 2 is ethyl, V is hydrogen (X-1) or COOR 8 (X-2) wherein R 8 is methyl. A, B and the carbon atom to which they are attached are saturated C 6 cycloalkyl in which one ring member is replaced by oxygen or A, B and the carbon atom to which they are attached are saturated C 6 cycloalkyl that is doubly substituted by fluorine or singly substituted by methoxy, or A, B and the carbon atom to which they are attached are C 6 cycloalkyl that is substituted by an alkylenediyl group containing two oxygen atoms that are not directly adjacent, with said group forming a further five-membered ring with the carbon atom to which it is attached, G is hydrogen (a) or V is hydrogen (X-1) or COOR 8 (X-2)
Liquid cooling system for cooling at least one electrical component , the liquid cooling system comprising: - a cooling circuit having an inlet flow line , a return flow line , and at least one supply branch for supplying liquid coolant to an electrical component ; and - at least one deaeration line to provide a connection between a high point and a junction point of the cooling circuit to bypass a part of the cooling circuit ; wherein the high point constitutes a geodetically or locally highest point of the at least one supply branch ; characterized in that the junction point is provided on the return flow line downstream of the at least one supply branch ; wherein the pressure of the liquid coolant is lower in the junction point than in the high point during circulation of the liquid coolant in the liquid cooling system . - a cooling circuit having an inlet flow line , a return flow line , and at least one supply branch for supplying liquid coolant to an electrical component ; and - at least one deaeration line to provide a connection between a high point and a junction point of the cooling circuit to bypass a part of the cooling circuit ; wherein the high point constitutes a geodetically or locally highest point of the at least one supply branch ; characterized in that the junction point is provided on the return flow line downstream of the at least one supply branch ; wherein the pressure of the liquid coolant is lower in the junction point than in the high point during circulation of the liquid coolant in the liquid cooling system .
Induction sealing device for heat sealing of packaging material, said sealing device comprising a coil conductor partly encapsulated in a supporting body , said coil conductor being adapted for cooperation with the packaging material during sealing, said coil conductor has a reduced cross sectional area at at least one position along the coil conductor so as to concentrate the magnetic flux induced by the coil conductor at said at least one position, wherein said reduced cross sectional area is achieved by reducing the width and height of the coil conductor and wherein said at least one position is placed to match a packaging material overlap in the area that is arranged to be sealed by the induction sealing device.