mhurhangee/patent-ind-claim-en huggingface dataset:
A turbocharger system comprising: an electric assist turbocharger which includes a turbine disposed in an exhaust passage of an engine (E) and configured to be driven by an exhaust gas, a compressor disposed in an intake passage and configured to be driven by a rotational torque of the turbine , and an electric motor configured to assist a driving force of the compressor ; and an electric motor control unit which is configured to drive the electric motor when detecting a hill start assist condition and a driver's starting operation, wherein the hill start assist condition means a door of a vehicle is closed in a stopped state, and a slope in the vehicle running direction of a road where the vehicle starts to move is larger than a predetermined threshold value, and the driver's starting operation is defined by a gear-in signal, and a clutch release signal in the MT vehicle or a brake release signal in the AT vehicle. an electric assist turbocharger which includes a turbine disposed in an exhaust passage of an engine (E) and configured to be driven by an exhaust gas, a compressor disposed in an intake passage and configured to be driven by a rotational torque of the turbine , and an electric motor configured to assist a driving force of the compressor ; and an electric motor control unit which is configured to drive the electric motor when detecting a hill start assist condition and a driver's starting operation, wherein the hill start assist condition means a door of a vehicle is closed in a stopped state, and a slope in the vehicle running direction of a road where the vehicle starts to move is larger than a predetermined threshold value, and the driver's starting operation is defined by a gear-in signal, and a clutch release signal in the MT vehicle or a brake release signal in the AT vehicle.
A seal member for an interface assembly , the seal member comprising: a sidewall ; and characterised by : a flange extending inwardly from the sidewall , the flange comprising a face contacting surface comprising first and second cheek surfaces, the face contacting surface comprising an edge that at least partially defines an opening , wherein the first cheek surface comprises a first thickened panel and the second cheek surface comprises a second thickened panel , wherein the first and second thickened panels comprise locally thickened regions of the flange, each of the thickened panels having a first side at or proximate to a respective portion of the edge , and arranged so as to increase the lateral pressure against a lateral nose surface of a user, in use. a flange extending inwardly from the sidewall , the flange comprising a face contacting surface comprising first and second cheek surfaces, the face contacting surface comprising an edge that at least partially defines an opening , wherein the first cheek surface comprises a first thickened panel and the second cheek surface comprises a second thickened panel , wherein the first and second thickened panels comprise locally thickened regions of the flange, each of the thickened panels having a first side at or proximate to a respective portion of the edge , and arranged so as to increase the lateral pressure against a lateral nose surface of a user, in use.
A semiconductor device comprising: a first semiconductor layer comprising one or more synaptic cores , each synaptic core comprising neural circuits and a memory array storing synapse information to perform neuromorphic computation; a second semiconductor layer stacked on the first semiconductor layer and comprising an interconnect (TSV) forming a physical transfer path between synaptic cores ; a third semiconductor layer stacked on the second semiconductor layer and comprising one or more synaptic cores each synaptic core comprising neural circuits and a memory array storing synapse information to perform neuromorphic computation; and one or more through electrodes (TSV), through which information is transferred between the first through third semiconductor layers, wherein a first synaptic core (SC1) in the first semiconductor layer is configured to transfer information including a result of neuromorphic computation to a second synaptic core in the third semiconductor layer (SC2) via the one or more through electrodes and the interconnect of the second semiconductor layer 212), wherein the second semiconductor layer further comprises a router for determining an information transfer path between the synaptic cores. a first semiconductor layer comprising one or more synaptic cores , each synaptic core comprising neural circuits and a memory array storing synapse information to perform neuromorphic computation; a second semiconductor layer stacked on the first semiconductor layer and comprising an interconnect (TSV) forming a physical transfer path between synaptic cores ; a third semiconductor layer stacked on the second semiconductor layer and comprising one or more synaptic cores each synaptic core comprising neural circuits and a memory array storing synapse information to perform neuromorphic computation; and one or more through electrodes (TSV), through which information is transferred between the first through third semiconductor layers, wherein a first synaptic core (SC1) in the first semiconductor layer is configured to transfer information including a result of neuromorphic computation to a second synaptic core in the third semiconductor layer (SC2) via the one or more through electrodes and the interconnect of the second semiconductor layer 212), wherein the second semiconductor layer further comprises a router for determining an information transfer path between the synaptic cores.
A medical container forming a reservoir for containing a medical product and having a longitudinal distal tip extending along a longitudinal axis (A), the distal tip defining a passageway in fluid communication with said reservoir, wherein the distal tip includes - a fitting portion configured to fit with a connector; and - a mounting portion proximally located relative to said fitting portion and configured to slidably connect an adaptor to said distal tip , wherein said mounting portion is configured to allow a free longitudinal movement of the adaptor relative to the distal tip when the adaptor is connected to the distal tip , wherein the mounting portion comprises guiding means configured to guide a translational movement of the adaptor relative to the distal tip and to prevent a rotation of the adaptor relative to the distal tip , the guiding means comprising at least one longitudinal bump , preferably three longitudinal bumps , configured to engage at least one complementarily shaped guiding window of a mounting ring of the adaptor , and characterized in that the least one longitudinal bump has a rounded shape and defines recessed lateral edges configured to receive lateral edges of said at least one guiding window , thereby allowing a snap-fit connection between the adaptor and the mounting portion of the distal tip . - a fitting portion configured to fit with a connector; and - a mounting portion proximally located relative to said fitting portion and configured to slidably connect an adaptor to said distal tip , wherein said mounting portion is configured to allow a free longitudinal movement of the adaptor relative to the distal tip when the adaptor is connected to the distal tip , wherein the mounting portion comprises guiding means configured to guide a translational movement of the adaptor relative to the distal tip and to prevent a rotation of the adaptor relative to the distal tip , the guiding means comprising at least one longitudinal bump , preferably three longitudinal bumps , configured to engage at least one complementarily shaped guiding window of a mounting ring of the adaptor , and characterized in that the least one longitudinal bump has a rounded shape and defines recessed lateral edges configured to receive lateral edges of said at least one guiding window , thereby allowing a snap-fit connection between the adaptor and the mounting portion of the distal tip .
Computer-implemented method comprising the steps of - receiving a plurality of MRI images, at least some of the MRI images showing an examination region during a first time span after administering a contrast agent, - feeding the plurality of MRI images to a prediction model (PM), - generating one or more predicted MRI images showing the examination region during a second time span by means of the prediction model (PM), the second time span following the first time span chronologically, - displaying and/or outputting the one or more predicted MRI images and/or storing the one or more predicted MRI images in a data storage medium, the prediction model (PM) having been trained by means of supervised learning to predict, on the basis of reference MRI images, at least some of which show an examination region during a first time span after administering a contrast agent, one or more reference MRI images showing the examination region during a second time span, the second time span following the first time span chronologically, the examination region being a liver or a portion of a liver of a human, the contrast agent being a hepatobiliary contrast agent, the first time span starting within a time span of from one minute to one second before the administration of the contrast agent or with the administration of the contrast agent, and lasting for a time span of from 2 minutes to 15 minutes from the administration of the contrast agent, the second time span starting at least 10 minutes after the administration of the contrast agent. - receiving a plurality of MRI images, at least some of the MRI images showing an examination region during a first time span after administering a contrast agent, - feeding the plurality of MRI images to a prediction model (PM), - generating one or more predicted MRI images showing the examination region during a second time span by means of the prediction model (PM), the second time span following the first time span chronologically, - displaying and/or outputting the one or more predicted MRI images and/or storing the one or more predicted MRI images in a data storage medium, the prediction model (PM) having been trained by means of supervised learning to predict, on the basis of reference MRI images, at least some of which show an examination region during a first time span after administering a contrast agent, one or more reference MRI images showing the examination region during a second time span, the second time span following the first time span chronologically, the examination region being a liver or a portion of a liver of a human, the contrast agent being a hepatobiliary contrast agent, the first time span starting within a time span of from one minute to one second before the administration of the contrast agent or with the administration of the contrast agent, and lasting for a time span of from 2 minutes to 15 minutes from the administration of the contrast agent, the second time span starting at least 10 minutes after the administration of the contrast agent.
An optical component comprising: multiple light transmissive members, each of the light transmissive members having an upper face, a lower face, and at least one lateral face; and a light reflecting member that surrounds the at least one lateral face of each of the light transmissive members, wherein the light reflecting member is made of a ceramic that contains a plurality of pores, wherein the light reflecting member has a first region having first porosity and a second region having second porosity that is lower than the first porosity successively from the light transmissive member side when viewed from the upper face side. multiple light transmissive members, each of the light transmissive members having an upper face, a lower face, and at least one lateral face; and a light reflecting member that surrounds the at least one lateral face of each of the light transmissive members, wherein the light reflecting member is made of a ceramic that contains a plurality of pores, wherein the light reflecting member has a first region having first porosity and a second region having second porosity that is lower than the first porosity successively from the light transmissive member side when viewed from the upper face side.
An airfoil for a gas turbine having a rotor central axis; the airfoil having a leading edge and a trailing edge ; the airfoil comprising: an airfoil wall having an inner surface and an outer surface , the airfoil wall forming an airfoil chamber at least partially enclosed within the airfoil wall ; and a plurality of airfoil passages formed in the airfoil wall , each of the plurality of airfoil passages comprising: a first opening in the inner surface , a second opening in the outer surface , and a channel extending from the first opening to the second opening , wherein a cross-sectional area of the channel decreases between the first opening and the second opening ; wherein the first opening has a first cross-sectional area and the second opening has a second cross-sectional area, and wherein the first cross-sectional area is larger than the second cross-sectional area; wherein the channel of each of the plurality of airfoil passages further comprises: a first section having the first cross-sectional area along its axial length; a second section having the second cross-sectional area along its axial length; and a transitional section that tapers in cross-sectional area along its axial length towards the second opening ; wherein a ratio of transitional section length to airfoil wall width is at least 3:1 and wherein for each of the plurality of airfoil passages , the first cross-sectional area is preferably 1.1-10 times larger than the second cross-sectional area, characterised in that the transitional section has a cross-sectional area that tapers between the first cross-sectional area and the second cross-sectional area of the respective first and second sections .
A combination of a server chassis for an electronic device and an airflow device , comprising: a cooling air passage structure formed external to and along a side of the server chassis, the cooling air passage structure extending in a depth direction of the server chassis from a front side of the server chassis; an airflow channel formed within the cooling air passage structure, the airflow channel extending in the depth direction; and a vent fluidically connecting the airflow channel with an interior of the server chassis at a vent location that is rearward in the depth direction relative to the front side; wherein the cooling air passage structure is a slide rail of the server chassis; wherein the slide rail is a first slide rail , the side of the server chassis is a first side, the airflow channel is a first airflow channel, and the vent is a first vent , further comprising: a second slide rail of the server chassis external to and along a second side of the server chassis; a second airflow channel that is in the second slide rail extending along the depth direction of the server chassis; and a second vent to fluidically connect the second airflow channel with the interior of the server chassis. a cooling air passage structure formed external to and along a side of the server chassis, the cooling air passage structure extending in a depth direction of the server chassis from a front side of the server chassis; an airflow channel formed within the cooling air passage structure, the airflow channel extending in the depth direction; and a vent fluidically connecting the airflow channel with an interior of the server chassis at a vent location that is rearward in the depth direction relative to the front side; wherein the cooling air passage structure is a slide rail of the server chassis; wherein the slide rail is a first slide rail , the side of the server chassis is a first side, the airflow channel is a first airflow channel, and the vent is a first vent , further comprising: a second slide rail of the server chassis external to and along a second side of the server chassis; a second airflow channel that is in the second slide rail extending along the depth direction of the server chassis; and a second vent to fluidically connect the second airflow channel with the interior of the server chassis. a second slide rail of the server chassis external to and along a second side of the server chassis; a second airflow channel that is in the second slide rail extending along the depth direction of the server chassis; and a second vent to fluidically connect the second airflow channel with the interior of the server chassis.
Process comprising the process steps of: a) presence of formic acid; b) addition of a compound comprising Pd, wherein the Pd is capable of forming a complex; c) addition of a compound of general formula ( I ): wherein R 1 , R 2 , R 3 , R 4 are each independently selected from: -H, -(C 1 -C 12 ) -alkyl, -O-(C 1 -C 12 ) -alkyl, -(C 4 -C 14 )-aryl, -O-(C 4 -C 14 )-aryl, cycloalkyl, -(C 1 -C 12 ) -heteroalkyl, -O-(C 1 -C 12 ) -heteroalkyl, -(C 3 -C 14 )-heteroaryl, -O-(C 3 -C 14 )-heteroaryl, -COO-alkyl, -COO-aryl, -C-O-alkyl, -C-O-aryl, NH 2 , halogen and the residues are also capable of forming a larger condensed ring; wherein the recited alkyl groups, aryl groups, cycloalkyl, heteroalkyl groups, heteroaryl groups may be substituted as follows: -(C 1 -C 12 )-alkyl, -O-(C 1 -C 12 )-alkyl, halogen; and at least one of the radicals R 1 , R 2 , R 3 , R 4 does not represent phenyl; d) addition of MeOH; e) heating of the reaction mixture to decompose the formic acid. a) presence of formic acid; b) addition of a compound comprising Pd, wherein the Pd is capable of forming a complex; c) addition of a compound of general formula ( I ): wherein R 1 , R 2 , R 3 , R 4 are each independently selected from: -H, -(C 1 -C 12 ) -alkyl, -O-(C 1 -C 12 ) -alkyl, -(C 4 -C 14 )-aryl, -O-(C 4 -C 14 )-aryl, cycloalkyl, -(C 1 -C 12 ) -heteroalkyl, -O-(C 1 -C 12 ) -heteroalkyl, -(C 3 -C 14 )-heteroaryl, -O-(C 3 -C 14 )-heteroaryl, -COO-alkyl, -COO-aryl, -C-O-alkyl, -C-O-aryl, NH 2 , halogen and the residues are also capable of forming a larger condensed ring; wherein the recited alkyl groups, aryl groups, cycloalkyl, heteroalkyl groups, heteroaryl groups may be substituted as follows: -(C 1 -C 12 )-alkyl, -O-(C 1 -C 12 )-alkyl, halogen; and at least one of the radicals R 1 , R 2 , R 3 , R 4 does not represent phenyl; -(C 1 -C 12 )-alkyl, -O-(C 1 -C 12 )-alkyl, halogen; and at least one of the radicals R 1 , R 2 , R 3 , R 4 does not represent phenyl; d) addition of MeOH; e) heating of the reaction mixture to decompose the formic acid.
A pedestal for supporting an elevated surface comprising boards or tiles mounted on a supporting frame of battens or joists, the pedestal comprising: a) a base configured to be placed on an underlying surface; b) a carrying plate having means for engaging with a batten or joist of the elevated surface and defining means for rotatably engaging with c) an intermediate portion engaging with both the base and the carrying plate and allowing varying the distance between the base and the carrying plate along a longitudinal axis X-X; the pedestal having a predominantly tubular cross section extending around a longitudinal axis X-X that defines the center line of the pedestal, characterised in that said carrying plate comprises three distinct engaging structures each configured to engage with a batten or joist, wherein the three engaging structures are configured as mushroom like protrusions extending from the carrying plate in a direction parallel to the X-axis and are positioned in a triangular configuration, the center of the defined triangle being positioned within a circle having a center coinciding with the longitudinal axis X-X and a radius equal to 50% of the radius of the tubular cross section of the pedestal . a) a base configured to be placed on an underlying surface; b) a carrying plate having means for engaging with a batten or joist of the elevated surface and defining means for rotatably engaging with c) an intermediate portion engaging with both the base and the carrying plate and allowing varying the distance between the base and the carrying plate along a longitudinal axis X-X; the pedestal having a predominantly tubular cross section extending around a longitudinal axis X-X that defines the center line of the pedestal, characterised in that said carrying plate comprises three distinct engaging structures each configured to engage with a batten or joist, wherein the three engaging structures are configured as mushroom like protrusions extending from the carrying plate in a direction parallel to the X-axis and are positioned in a triangular configuration, the center of the defined triangle being positioned within a circle having a center coinciding with the longitudinal axis X-X and a radius equal to 50% of the radius of the tubular cross section of the pedestal .
A unitary bogie frame for a bogie of a rail vehicle, the unitary bogie frame including: - at least two side beams extending in a longitudinal direction of the bogie frame , and spaced apart from one another in a transverse direction of the bogie frame , on respective left and right sides of a longitudinal median plane of the bogie frame , and - at least one support beam extending in the transverse direction of the bogie frame , wherein the support beam is rigidly connected to each of the two side beams , and includes a support portion for supporting a drive unit of the bogie and a slender portion , wherein each cross-section of the support beam by a cross-sectional plane parallel to the longitudinal median plane has a planar second moment of area (M) and a polar second moment of area (J), characterised in that the support portion is directly connected to one of the two side beams and is connected to the other of the two side beams through the slender portion , wherein the planar second moment of area (M) and the polar second moment of area (J) of any cross section of the support portion of the support beam are at least twice as great, preferably at least 2.5 times as great, as the planar second moment of area (M) and the polar second moment of area (J), respectively, of any cross-section of the slender portion of the support beam . - at least two side beams extending in a longitudinal direction of the bogie frame , and spaced apart from one another in a transverse direction of the bogie frame , on respective left and right sides of a longitudinal median plane of the bogie frame , and - at least one support beam extending in the transverse direction of the bogie frame , wherein the support beam is rigidly connected to each of the two side beams , and includes a support portion for supporting a drive unit of the bogie and a slender portion , wherein each cross-section of the support beam by a cross-sectional plane parallel to the longitudinal median plane has a planar second moment of area (M) and a polar second moment of area (J),