mhurhangee/ep-ind-claims huggingface dataset:
A method for full color data processing for a 3D target object, comprising: performing a layering process on the 3D target object to determine slice-layer data of each layer, wherein the slice-layer data includes layer-color data, wherein the layer-color data represents color information of the 3D target object, wherein the slice-layer data also includes layer-structure data, wherein the layer-structure data represents a printing location of the 3D target object; wherein the slice-layer data is either included in a first bitmap image or in a first and second bitmap images, the first bitmap image including the layer color data and the second bitmap image including the layer structure data and the method comprises analyzing the layer-color data and the layer-structure data when the layer-color data is indistinguishable from the background color data of the first bitmap image, and analyzing only the layer-color data when the layer-color data is distinguishable from the background color data of the first bitmap image, thereby determining a layer color of the 3D target object and determining printing information of the 3D target object. performing a layering process on the 3D target object to determine slice-layer data of each layer, wherein the slice-layer data includes layer-color data, wherein the layer-color data represents color information of the 3D target object, wherein the slice-layer data also includes layer-structure data, wherein the layer-structure data represents a printing location of the 3D target object; wherein the slice-layer data is either included in a first bitmap image or in a first and second bitmap images, the first bitmap image including the layer color data and the second bitmap image including the layer structure data and the method comprises analyzing the layer-color data and the layer-structure data when the layer-color data is indistinguishable from the background color data of the first bitmap image, and analyzing only the layer-color data when the layer-color data is distinguishable from the background color data of the first bitmap image, thereby determining a layer color of the 3D target object and determining printing information of the 3D target object.
An in vitro method to predict the response of a human subject suffering from cancer to a treatment of said disease with an antagonist of the NK1 receptor, wherein said method comprises: - detecting the expression level of the NK1 receptor in a sample of tumor cells isolated from the subject;. - comparing the expression level to a reference value; and - predicting a positive response to the treatment if the expression level is increased relative to the reference value, wherein the reference value is the average expression level in a population of non-respondents. - detecting the expression level of the NK1 receptor in a sample of tumor cells isolated from the subject;. - comparing the expression level to a reference value; and - predicting a positive response to the treatment if the expression level is increased relative to the reference value,
Inverting filter centrifuge, with a filter drum rotatably mounted in a machine frame, projecting in a self-supporting manner into a housing connected to the machine frame and comprising radial passage openings, which surrounds radially a centrifuge space, said bowl being capable of being subjected to normal pressure, overpressure, or underpressure, with a centrifuge space cover closing on the face side, with a push floor rigidly connected to the centrifuge space cover while leaving free a clearance space, and delimiting the other side of the centrifuge space, wherein the filter drum and the push floor can be moved axially relative to each other in order to invert a filter cloth and in order to convey separated solid substance out of the centrifuge space into a solid substance collection chamber, with a filling opening provided at the centrifuge space cover for media which are to be introduced (suspension, washing fluid, etc.) and with a filling pipe, which passes through the filling opening with the centrifuge space closed, sealing this by means of a sealing system, mounted such as to rotate about its longitudinal axis and fed by way of a rigid media delivery device, characterized in that a mouth piece ending the rigid media delivery device, which is penetrated by an inlet opening, extends into the rotatably mounted filling pipe, as a result of which a passage is formed for the media which are to be introduced into the centrifuge space, an annular gap is formed between the mouth piece and the filling pipe, through which sealing lips (lip seals) extend, which delimit the centrifuge space against the surrounding area, wherein the sealing lips are arranged in such a way that an inlet zone is formed between at least one first sealing lip and a sealing lip row, and an outflow zone is formed between the sealing lip row and at least one last sealing lip, a delivery line for compressed gas is provided in the mouth piece, which ends in the inlet zone and therefore inflowing compressed gas, among other purposes to create an overpressure in the centrifuge space, on its way to the centrifuge space, as a result of its arrangement vents and consequently relieves the first sealing lip, which delimits the centrifuge space against the inlet zone, and that the sealing lips are arranged in the sealing lip row, which delimits the inlet zone towards the outflow zone, in such a way that overpressure present in the inlet zone vents and consequently relieves the sealing lips.
A compound of formula I or an enantiomer, diastereomer, or a pharmaceutically acceptable salt thereof, wherein: R 1 is a CO group optionally substituted by one or more R 2 groups or substituents; R 2 is absent or is an optionally substituted mono- or bicyclic C 1 -C 9 heterocyclic group containing from 1 to 3 heteroatoms selected from nitrogen, oxygen and sulfur, an optionally substituted mono-, bi- or tricyclic C 6 -C 14 aryl group, or an optionally substituted group chosen from alkyl, cycloalkyl, alkoxy, cycloalkyloxy, aryloxy, heteroaryloxy, alkylthio, amino, N-alkylamino, N,N-dialkylamino, or N-alkyl-N-alkoxyamino; R3 is an optionally substituted phenyl or pyridyl group, said optional substituents being are selected from a C1-C10 alkyl group or a halide group; and n is 1. R 1 is a CO group optionally substituted by one or more R 2 groups or substituents; R 2 is absent or is an optionally substituted mono- or bicyclic C 1 -C 9 heterocyclic group containing from 1 to 3 heteroatoms selected from nitrogen, oxygen and sulfur, an optionally substituted mono-, bi- or tricyclic C 6 -C 14 aryl group, or an optionally substituted group chosen from alkyl, cycloalkyl, alkoxy, cycloalkyloxy, aryloxy, heteroaryloxy, alkylthio, amino, N-alkylamino, N,N-dialkylamino, or N-alkyl-N-alkoxyamino; R3 is an optionally substituted phenyl or pyridyl group, said optional substituents being are selected from a C1-C10 alkyl group or a halide group; and n is 1.
A catheter assembly comprising: a catheter adapter having a proximal end, a distal end, and a lumen extending between the proximal end and the distal end; a port disposed in the catheter adapter, the port opening into the lumen; and a valve disposed within the lumen, the valve including a flexible tube portion and a one-way valve portion, a portion of the flexible tube portion covering an opening between the port and the lumen, the one-way valve portion limiting fluid flow through the valve to flow in a distal direction, the tube portion further comprising a substantially cylindrical shape, the one-way valve portion further comprising a duckbill valve, the one-way valve portion being disposed on the proximal end of the valve, wherein the one-way valve portion is configured to withstand at least an average venous pressure in a proximal direction, characterized in that the catheter adapter is configured to force fluid received through the port to a proximal side of the valve. a catheter adapter having a proximal end, a distal end, and a lumen extending between the proximal end and the distal end; a port disposed in the catheter adapter, the port opening into the lumen; and a valve disposed within the lumen, the valve including a flexible tube portion and a one-way valve portion, a portion of the flexible tube portion covering an opening between the port and the lumen, the one-way valve portion limiting fluid flow through the valve to flow in a distal direction, the tube portion further comprising a substantially cylindrical shape, the one-way valve portion further comprising a duckbill valve, the one-way valve portion being disposed on the proximal end of the valve, wherein the one-way valve portion is configured to withstand at least an average venous pressure in a proximal direction, characterized in that the catheter adapter is configured to force fluid received through the port to a proximal side of the valve.
Interior component of a vehicle, wherein the interior component comprises at least an insert component, a moulded skin element, and a foam body which is introduced in a foaming process between the insert component and the moulded skin element, wherein the insert component comprises a body portion for retention in the interior component and an edge portion for supporting the production of the interior component, characterized in that the insert component comprises, in each case in a delimiting manner, an insert surface body and an insert foam body arranged therebetween, wherein the edge portion has, at least partly, a smaller thickness compared with the body portion, said thickness being formed during the production of the insert component by at least partial foaming of the insert foam body for the edge portion. in that the insert component comprises, in each case in a delimiting manner, an insert surface body and an insert foam body arranged therebetween, wherein the edge portion has, at least partly, a smaller thickness compared with the body portion, said thickness being formed during the production of the insert component by at least partial foaming of the insert foam body for the edge portion.
A stent graft for deployment in a curved lumen, including an element of graft material providing an inner lumen, a plurality of stents (4, 4') located longitudinally along the graft element, at least one of said stents being a proximal stent located at a proximal end of the stent graft, said proximal stent including a proximal end and a distal end; at least first and second separate sets of loops of thread, said first set of loops being located at or adjacent said proximal end of said proximal stent, said second set of loops being located at or proximate the distal end of said proximal stent, said first and second sets of loops extending into the inner lumen; wherein the first and second sets of loops are adapted to be able to engage with a constraining mechanism of an introducer for deployment of said stent graft in the a curved lumen; wherein the first and second sets of loops are adapted to enable, in use, the proximal stent to be constrained on the introducer at at least two points during deployment whilst a portion of the stent graft is expanded, and wherein the first and second sets of loops are adapted to enable, in use, both the proximal and distal ends of the proximal stent to be constrained on the introducer.
A combined cycle power plant 100, comprising: at least one gas turbine 110 configured to produce gas to generate power and subsequently releasing exhaust gas; at least one heat recovery steam generator 120 thermally connected to the at least one gas turbine 110 to use heat energy extracted from the exhaust gas of the at least one gas turbine 110 to produce steam; at least one steam turbine 130 thermally connected to the at least one heat recovery steam generator 120 to utilize the steam produced by the at least one heat recovery steam generator 120 to generate the power; characterised in that at least one flash tank 140 is fluidically connected at a cold end 122 of the at least one heat recovery steam generator 120 to extract hot water from the cold end 122; a first supply line 150 is interconnecting the at least one flash tank 140 and the at least one steam turbine 130 to enable supply of flash steam to the at least one steam turbine 130; and a second supply line 160 is configured to supply hot flash condensate from the at least one flash tank 140 to a return line to the at least one heat recovery steam generator 120. at least one gas turbine 110 configured to produce gas to generate power and subsequently releasing exhaust gas; at least one heat recovery steam generator 120 thermally connected to the at least one gas turbine 110 to use heat energy extracted from the exhaust gas of the at least one gas turbine 110 to produce steam; at least one steam turbine 130 thermally connected to the at least one heat recovery steam generator 120 to utilize the steam produced by the at least one heat recovery steam generator 120 to generate the power; characterised in that at least one flash tank 140 is fluidically connected at a cold end 122 of the at least one heat recovery steam generator 120 to extract hot water from the cold end 122; a first supply line 150 is interconnecting the at least one flash tank 140 and the at least one steam turbine 130 to enable supply of flash steam to the at least one steam turbine 130; and a second supply line 160 is configured to supply hot flash condensate from the at least one flash tank 140 to a return line to the at least one heat recovery steam generator 120.
Method for operating a machine plant having a shaft train, with the steps of: a) computationally determining the natural frequency of at least one torsional oscillation mode of the shaft train and computationally determining the mechanical stresses of the shaft train occurring during an oscillation period of the torsional oscillation mode; b) determining in each case a correlation for each torsional oscillation mode between a first stress amplitude, which occurs at a position of the shaft train that is susceptible to the formation of stress damage, and a second stress amplitude, which occurs at a measuring location (7 to 11) of the shaft train, on the basis of the stresses computationally determined for the respective torsional oscillation mode; c) establishing a maximum first stress amplitude for the position; d) determining a maximum second stress amplitude, corresponding to the maximum first stress amplitude, for the measuring location (7 to 11) on the basis of the correlation; e) measuring the stress of the shaft train while the shaft train is rotating at the measuring location (7 to 11) in a time-dependent manner; f) determining a stress amplitude at each natural frequency from the measured stress; g) emitting a signal in the event that, at one of the natural frequencies, the stress amplitude determined from the measured stresses reaches the maximum second stress amplitude. a) computationally determining the natural frequency of at least one torsional oscillation mode of the shaft train and computationally determining the mechanical stresses of the shaft train occurring during an oscillation period of the torsional oscillation mode; b) determining in each case a correlation for each torsional oscillation mode between a first stress amplitude, which occurs at a position of the shaft train that is susceptible to the formation of stress damage, and a second stress amplitude, which occurs at a measuring location (7 to 11) of the shaft train, on the basis of the stresses computationally determined for the respective torsional oscillation mode; c) establishing a maximum first stress amplitude for the position; d) determining a maximum second stress amplitude, corresponding to the maximum first stress amplitude, for the measuring location (7 to 11) on the basis of the correlation; e) measuring the stress of the shaft train while the shaft train is rotating at the measuring location (7 to 11) in a time-dependent manner; f) determining a stress amplitude at each natural frequency from the measured stress; g) emitting a signal in the event that, at one of the natural frequencies, the stress amplitude determined from the measured stresses reaches the maximum second stress amplitude.
A medical system comprising: a medical instrument provided with a sheath which is provided at its distal end portion with a treatment portion for performing treatment operations on living body tissue; a treatment portion displacement mechanism for advancing and retreating the sheath of the medical instrument to displace the position of the treatment portion; a treatment detection portion that detects whether the treatment portion is in a treatment state or a non-treatment state; and characterized by further comprising a control portion that controls the treatment portion displacement mechanism so as to change advance/retreat displacement speed of the sheath according to detection results from the treatment detection portion. a medical instrument provided with a sheath which is provided at its distal end portion with a treatment portion for performing treatment operations on living body tissue; a treatment portion displacement mechanism for advancing and retreating the sheath of the medical instrument to displace the position of the treatment portion; a treatment detection portion that detects whether the treatment portion is in a treatment state or a non-treatment state; and characterized by further comprising a control portion that controls the treatment portion displacement mechanism so as to change advance/retreat displacement speed of the sheath according to detection results from the treatment detection portion.
An electric tool, comprising: an electric motor including a permanent magnet and a coil; and a control unit configured to perform control on operation of the electric motor, the control performed by the control unit includes field weakening control by which the control unit causes a flux-weakening current to flow through the coil, the flux-weakening current being a current that generates, in the coil, a magnetic flux that weakens a magnetic flux of the permanent magnet, wherein the control unit has a function of changing a magnitude of the flux-weakening current in the field weakening control, wherein the electric tool is characterized in that the control unit is configured to, when a predetermined increase condition is satisfied, perform gradual-increase control of increasing an absolute value of the flux-weakening current over time in the field weakening control, wherein the control unit is configured to, when a predetermined decrease condition is satisfied, perform gradual-decrease control of decreasing the absolute value of the flux-weakening current over time in the field weakening control, the predetermined decrease condition being different from the predetermined increase condition, a rate of change of the flux-weakening current in the gradual-decrease control being less than a rate of change of the flux-weakening current in the gradual-increase control. an electric motor including a permanent magnet and a coil; and a control unit configured to perform control on operation of the electric motor, the control performed by the control unit includes field weakening control by which the control unit causes a flux-weakening current to flow through the coil, the flux-weakening current being a current that generates, in the coil, a magnetic flux that weakens a magnetic flux of the permanent magnet, wherein the control unit has a function of changing a magnitude of the flux-weakening current in the field weakening control, wherein the electric tool is characterized in that the control unit is configured to, when a predetermined increase condition is satisfied, perform gradual-increase control of increasing an absolute value of the flux-weakening current over time in the field weakening control, wherein the control unit is configured to, when a predetermined decrease condition is satisfied, perform gradual-decrease control of decreasing the absolute value of the flux-weakening current over time in the field weakening control, the predetermined decrease condition being different from the predetermined increase condition, a rate of change of the flux-weakening current in the gradual-decrease control being less than a rate of change of the flux-weakening current in the gradual-increase control.
An apparatus, implemented at a user equipment, UE,, the apparatus comprising: means for receiving a paging message from a network device, the paging message comprising an identity of the UE and an UL grant; means for transmitting a signal to the network device using the UL grant; wherein the paging message further comprises a radio resource control, RRC, setup or resume message; and wherein the signal, transmitted to the network device using the UL grant, comprises an RRC setup or resume complete message. means for receiving a paging message from a network device, the paging message comprising an identity of the UE and an UL grant; means for transmitting a signal to the network device using the UL grant; wherein the paging message further comprises a radio resource control, RRC, setup or resume message; and wherein the signal, transmitted to the network device using the UL grant, comprises an RRC setup or resume complete message.
A lighting device (100, 200) comprising: - at least one light source; - a driver assembly comprising driver electronics; and - a heat sink component having a bottom and a sidewall extending from the bottom; wherein during operation of the light source, a distance between an optical axis of the lighting device and a heat flow of the lighting device is less than a distance between the optical axis and a component of the driver electronics having the highest temperature sensitivity; wherein the heat sink component further has a concave part extending from the bottom into the heat sink component, wherein the at least one light source thermally contacts the concave part; wherein the heat sink component comprises a heat sink opening, and wherein the heat sink opening comprises a plurality of holes in the bottom of the heat sink component between the concave part and the sidewall; wherein the lighting device (100, 200) further comprises a cover provided on the sidewall and opposite to the bottom, thereby defining an air chamber between the cover, the sidewall, the bottom and the concave part; wherein the cover comprises a cover opening, wherein the air chamber forms a channel between the cover opening and the heat sink opening to allow a flow of air between the cover opening and the heat sink opening or vice versa, wherein the driver assembly is arranged in the air chamber, characterized in that the sidewall comprises a patch corresponding to a mounting position of the driver assembly. - at least one light source; - a driver assembly comprising driver electronics; and - a heat sink component having a bottom and a sidewall extending from the bottom;