mhurhangee/patent-ind-claim-en huggingface dataset:
A system for controlling an electrical current flowing between a power source and a multi-phase electromagnetic machine , wherein said system comprises a first lane, A, comprising a first plurality of phases capable of providing said current from said power source to said machine , and further comprising a second lane, B, comprising a second plurality of phases capable of providing said current to said machine , said system being configured to provide said current via said first lane, A, while no current is being provided via said second lane, B, and wherein each of said first plurality of phases comprises at least one inverter switch (Q1-Q6) positioned between said power source and said machine , and wherein said system further comprises means for detecting a fault in one (Q6) of the first plurality of inverter switches of lane A, the system further comprising a first phase isolation means provided on said first lane, A, and wherein, upon said detection of said fault in lane A, said system is configured to disable said inverter switches of lane A, and said first phase isolation means is configured to then block said current from flowing back from said machine and towards said faulty inverter (Q6) of lane A, characterised in that said first phase isolation means comprises semiconductor switches (Q7-Q9) and associated diodes (D7-D9), the semiconductor switches (Q7-Q9) each being configured to only turn off and block said current when a respective phase current magnitude is less than a predetermined threshold. wherein said system comprises a first lane, A, comprising a first plurality of phases capable of providing said current from said power source to said machine , and further comprising a second lane, B, comprising a second plurality of phases capable of providing said current to said machine , said system being configured to provide said current via said first lane, A, while no current is being provided via said second lane, B, and wherein each of said first plurality of phases comprises at least one inverter switch (Q1-Q6) positioned between said power source and said machine , and wherein said system further comprises means for detecting a fault in one (Q6) of the first plurality of inverter switches of lane A, the system further comprising a first phase isolation means provided on said first lane, A, and wherein, upon said detection of said fault in lane A, said system is configured to disable said inverter switches of lane A, and said first phase isolation means is configured to then block said current from flowing back from said machine and towards said faulty inverter (Q6) of lane A, characterised in that said first phase isolation means comprises semiconductor switches (Q7-Q9) and associated diodes (D7-D9), the semiconductor switches (Q7-Q9) each being configured to only turn off and block said current when a respective phase current magnitude is less than a predetermined threshold.
A recording method comprising a process of adhering a non-aqueous ink jet ink composition to a recording medium, the ink composition comprising: at least one solvent represented by General Formula and having a flash point of 140°C or lower; a fixing resin; and C.I. Pigment Orange-43 (PO-43) as a pigment. R 1 O-(R 2 O) m -R 3 ... [In General Formula , R 1 and R 3 each independently represent hydrogen or an alkyl group having 1 to 5 carbon atoms, R 2 represents an alkylene group having 2 or 3 carbon atoms, and m represents an integer of 2 to 6. Here, at least one of R 1 and R 3 is the alkyl group having 1 to 5 carbon atoms], wherein a surface temperature of the recording medium in the process of adhering the ink composition to the recording medium is 35°C or higher; the fixing resin includes a vinyl chloride-based fixing resin; the content of the fixing resin in the ink jet ink composition is 0.5% to 7% by mass; and the content of the vinyl chloride-based resin in the ink jet ink composition is equal to or more than 0.5% to 5% by mass. at least one solvent represented by General Formula and having a flash point of 140°C or lower; a fixing resin; and C.I. Pigment Orange-43 (PO-43) as a pigment. R 1 O-(R 2 O) m -R 3 ... [In General Formula , R 1 and R 3 each independently represent hydrogen or an alkyl group having 1 to 5 carbon atoms, R 2 represents an alkylene group having 2 or 3 carbon atoms, and m represents an integer of 2 to 6. Here, at least one of R 1 and R 3 is the alkyl group having 1 to 5 carbon atoms], wherein a surface temperature of the recording medium in the process of adhering the ink composition to the recording medium is 35°C or higher; the fixing resin includes a vinyl chloride-based fixing resin; the content of the fixing resin in the ink jet ink composition is 0.5% to 7% by mass; and the content of the vinyl chloride-based resin in the ink jet ink composition is equal to or more than 0.5% to 5% by mass.
A composition comprising a) aconitic acid, b) one or more acids selected from the group consisting of adipic acid, glutaric acid, and combinations thereof, and c) a carrier, said composition having a total combined amount of a) aconitic acid and b) one or more acids selected from the group consisting of adipic acid, glutaric acid, and combinations thereof, of from 0.1 to 2% by weight based on the total weight of the composition.
Food preparation accessory for a working recipient of a food preparation kitchen appliance , comprising an internal receptacle and a accessory rotating working tool arranged in the internal receptacle , the internal receptacle being provided to rest inside the working recipient , the internal receptacle comprising a tank having a bottom and a side wall , the side wall having an upper edge , characterised in that it comprises an accessory cover provided to close off at least partially the tank , and in that the internal receptacle comprises two foldable handles pivotably mounted between a folded position and a raised position.
Transport trolley having a main framework with castors and having a swing-action base , which can be pivoted relative to the main framework , having a force-deflection element and having a pivoting-movement element , which can be expanded in a linear manner and is intended to assist the pivoting movement of the base , wherein the base , in at least one operating position for depositing and transporting goods, bears against the main framework and, in a second, non-operating position, is swung out and/or away from the main framework , characterized in that, when the base is being transferred from the operating position into the non-operating position, the force-deflection element bears against the base only during part of the pivoting movement and, in the last part of the pivoting movement, the pivoting-movement element moves the base without being assisted by the force-deflection element .
An elevator hoist machine comprising: a sheave device ; a frame to which the sheave device is fixed; a main shaft for supporting the frame ; a casing for supporting one end of the main shaft ; and a support section for supporting the other end of the main shaft , wherein the support section includes a bearing attached to the main shaft at a side of the other end, a housing having the bearing disposed in an inner space, and a support base to which the housing is fixed, characterized in that : the housing is disposed closer to the casing than the support base in an axial direction of the main shaft ; and in a side sectional view of the elevator hoist machine, at least a part of the housing is disposed at a position interposed between the main shaft and the frame . a sheave device ; a frame to which the sheave device is fixed; a main shaft for supporting the frame ; a casing for supporting one end of the main shaft ; and a support section for supporting the other end of the main shaft , wherein the support section includes a bearing attached to the main shaft at a side of the other end, a housing having the bearing disposed in an inner space, and a support base to which the housing is fixed, characterized in that : the housing is disposed closer to the casing than the support base in an axial direction of the main shaft ; and in a side sectional view of the elevator hoist machine, at least a part of the housing is disposed at a position interposed between the main shaft and the frame . the housing is disposed closer to the casing than the support base in an axial direction of the main shaft ; and in a side sectional view of the elevator hoist machine, at least a part of the housing is disposed at a position interposed between the main shaft and the frame .
Wine storage cabinet having a cooled interior, comprising: two compartments which are arranged one above the other and are separated by a separating base , a heat pump comprising a cold heat exchanger arranged in the interior, a riser leading from the lower compartment into the upper compartment , a first interior fan in the lower compartment , which fan is arranged such that, when operated, air is guided over the cold heat exchanger , a second interior fan which is arranged such that, when operated, air is guided out of the lower compartment , through the rise , and into the upper compartment , and a drop shaft which leads from the upper compartment into the lower compartment and through which air can drop from the upper compartment into the lower compartment , wherein the wine storage cabinet is designed to set a higher temperature in the upper compartment than in the lower compartment , and the drop shaft comprises an outlet opening through which air can escape from the upper compartment into the drop shaft , characterised in that an air flap which is designed to close the outlet opening in a reversible manner, and the air flap is designed so as to be self-closing, such that it is transferred into the closed state by the effect of gravity and, in the event of a force effect from the front, brought about by a pressure difference generated during operation of the second interior fan , pivots backwards into the drop shaft , and in the process is transferred into an open state. two compartments which are arranged one above the other and are separated by a separating base , a heat pump comprising a cold heat exchanger arranged in the interior, a riser leading from the lower compartment into the upper compartment , a first interior fan in the lower compartment , which fan is arranged such that, when operated, air is guided over the cold heat exchanger , a second interior fan which is arranged such that, when operated, air is guided out of the lower compartment , through the rise , and into the upper compartment , and a drop shaft which leads from the upper compartment into the lower compartment and through which air can drop from the upper compartment into the lower compartment , wherein the wine storage cabinet is designed to set a higher temperature in the upper compartment than in the lower compartment , and the drop shaft comprises an outlet opening through which air can escape from the upper compartment into the drop shaft , characterised in that an air flap which is designed to close the outlet opening in a reversible manner, and the air flap is designed so as to be self-closing, such that it is transferred into the closed state by the effect of gravity and, in the event of a force effect from the front, brought about by a pressure difference generated during operation of the second interior fan , pivots backwards into the drop shaft , and in the process is transferred into an open state.
A non-volatile memory comprising: a fin structure ; a first fin field effect transistor , formed on the fin structure and having a first gate (G1), a first source region (S1), and a first drain region (D1); a second fin field effect transistor , formed on the fin structure and having a second gate (G2), a second drain region (D2), and a second source region (S2) coupled to the first drain region (D1); an antifuse structure , formed on the fin structure and having a sharing gate (GA), a single diffusion break isolation structure , a first source/drain region (SA), and a second source/drain region (SB), wherein the single diffusion break isolation structure is formed on the fin structure and formed between the first source/drain region (SA) and the second source/drain region (SB), a top surface of the single diffusion break isolation structure is covered by the sharing gate (GA), and the first source/drain region (SA) is coupled to the second drain region (D2); a third fin field effect transistor , formed on the fin structure and having a third gate (G3), a third source region (S3), and a third drain region (D3) coupled to the second source/drain region (SB); and a fourth fin field effect transistor , formed on the fin structure and having a fourth gate (G4), a fourth source region (S4), and a fourth drain region (D4) coupled to the third source region (S3). a fin structure ; a first fin field effect transistor , formed on the fin structure and having a first gate (G1), a first source region (S1), and a first drain region (D1); a second fin field effect transistor , formed on the fin structure and having a second gate (G2), a second drain region (D2), and a second source region (S2) coupled to the first drain region (D1); an antifuse structure , formed on the fin structure and having a sharing gate (GA), a single diffusion break isolation structure , a first source/drain region (SA), and a second source/drain region (SB), wherein the single diffusion break isolation structure is formed on the fin structure and formed between the first source/drain region (SA) and the second source/drain region (SB), a top surface of the single diffusion break isolation structure is covered by the sharing gate (GA), and the first source/drain region (SA) is coupled to the second drain region (D2); a third fin field effect transistor , formed on the fin structure and having a third gate (G3), a third source region (S3), and a third drain region (D3) coupled to the second source/drain region (SB); and a fourth fin field effect transistor , formed on the fin structure and having a fourth gate (G4), a fourth source region (S4), and a fourth drain region (D4) coupled to the third source region (S3).
A rekeyable cylinder for a lock, comprising: - a main body ; - a plug inserted in a housing of the main body and configured to rotate about a rotation axis (X) thereof, said plug having a slot for inserting a key; - a plurality of active pins housed in respective seats obtained on said plug ; - a plurality of counter-pins housed in respective seats obtained in the main body according to a direction (T) that is transverse to said rotation axis (X) in order to define a keying of the lock, when the plug is in an operative configuration, in which each active pin is aligned with a respective counter-pin so as to jointly define said keying of the lock, wherein the plug is in a rotated position relative to said operative configuration so that the slot is aligned with said transverse direction (T); - a blocking device configured to maintain the plug in said rotated position relative to said operative configuration, wherein said blocking device comprises an insert having a longitudinal direction of extension (L) and adapted to be inserted into the slot , said insert pressing on the counter-pins to maintain them completely inside the respective seats . - a main body ; - a plug inserted in a housing of the main body and configured to rotate about a rotation axis (X) thereof, said plug having a slot for inserting a key; - a plurality of active pins housed in respective seats obtained on said plug ; - a plurality of counter-pins housed in respective seats obtained in the main body according to a direction (T) that is transverse to said rotation axis (X) in order to define a keying of the lock, when the plug is in an operative configuration, in which each active pin is aligned with a respective counter-pin so as to jointly define said keying of the lock, wherein the plug is in a rotated position relative to said operative configuration so that the slot is aligned with said transverse direction (T); - a blocking device configured to maintain the plug in said rotated position relative to said operative configuration,
An active noise control system for reducing noise, comprising: a first speaker configured to output a first cancellation sound; a second speaker configured to output a second cancellation sound; and a cancellation sound generation unit that is configured to generate the first cancellation sound output from the first speaker and the second cancellation sound output from the second speaker such that noise is canceled at a first cancellation point set in advance and noise is canceled at a second cancellation point set in advance, wherein the first cancellation point and the second cancellation point are a point where a left ear of a person sitting in a predetermined seat is normally located and a point where a right ear of a user is normally located, respectively, characterized in that the first speaker and the second speaker are arranged side by side in a direction perpendicular to a line segment connecting the first cancellation point and the second cancellation point to each other such that positions of the first speaker and the second speaker in a direction of the line segment are located between the first cancellation point and the second cancellation point . a first speaker configured to output a first cancellation sound; a second speaker configured to output a second cancellation sound; and a cancellation sound generation unit that is configured to generate the first cancellation sound output from the first speaker and the second cancellation sound output from the second speaker such that noise is canceled at a first cancellation point set in advance and noise is canceled at a second cancellation point set in advance, wherein the first cancellation point and the second cancellation point are a point where a left ear of a person sitting in a predetermined seat is normally located and a point where a right ear of a user is normally located, respectively, characterized in that the first speaker and the second speaker are arranged side by side in a direction perpendicular to a line segment connecting the first cancellation point and the second cancellation point to each other such that positions of the first speaker and the second speaker in a direction of the line segment are located between the first cancellation point and the second cancellation point .
Holding apparatus for an ultrasonic probe for image-based representation of a body part to be examined of a person comprising a base body having a base area , wherein the base body comprises a receiving opening for receiving an ultrasonic probe , wherein a bearing surface is formed to support the body part to be examined, and wherein the receiving opening is arranged in the bearing surface and the body part to be examined is treatable with sound with a received ultrasonic probe in the receiving opening out of the bearing surface , characterized in that , the body part to be examined is a thigh of a person . a base body having a base area , wherein the base body comprises a receiving opening for receiving an ultrasonic probe , wherein a bearing surface is formed to support the body part to be examined, and wherein the receiving opening is arranged in the bearing surface and the body part to be examined is treatable with sound with a received ultrasonic probe in the receiving opening out of the bearing surface , characterized in that , the body part to be examined is a thigh of a person .
A method of planning the correction of spinal deformations of a subject, using a suitably programmed computer, comprising: deriving a first set of images of the subject's spine in its erect neutral position, said first set of images being three-dimensional; performing segmentation of at least one of said three dimensional images such that the positions and orientations of vertebrae in a region of interest of said spine are characterized; obtaining a second set of images of said subject's spine in at least one of positions of bending and positions of twisting, and determining the dynamic range of motion of vertebrae of said spine by analyzing said second set of images; deriving spinal alignment parameters from said positions and orientations of vertebrae in a region of interest of said spine, that relate to the global balance of said subject; determining if said spinal alignment parameters fall within an acceptable range of values for the spine of said subject; and if any of said spinal alignment parameters fall outside said acceptable range of values, performing, using said suitably programmed computer, a virtual iterative alignment on at least the vertebrae in said region of interest of said spine to bring said spinal alignment parameters within said acceptable range, taking into consideration said dynamic range of motion of said vertebrae , wherein said virtual iterative alignment is used in planning the correction of spinal deformations to optimize global balance . deriving a first set of images of the subject's spine in its erect neutral position, said first set of images being three-dimensional; performing segmentation of at least one of said three dimensional images such that the positions and orientations of vertebrae in a region of interest of said spine are characterized; obtaining a second set of images of said subject's spine in at least one of positions of bending and positions of twisting, and determining the dynamic range of motion of vertebrae of said spine by analyzing said second set of images; deriving spinal alignment parameters from said positions and orientations of vertebrae in a region of interest of said spine, that relate to the global balance of said subject; determining if said spinal alignment parameters fall within an acceptable range of values for the spine of said subject; and if any of said spinal alignment parameters fall outside said acceptable range of values, performing, using said suitably programmed computer, a virtual iterative alignment on at least the vertebrae in said region of interest of said spine to bring said spinal alignment parameters within said acceptable range, taking into consideration said dynamic range of motion of said vertebrae , wherein said virtual iterative alignment is used in planning the correction of spinal deformations to optimize global balance .