mhurhangee/ep-ind-claims huggingface dataset:
Modular tank (1, 1') for containing liquids, in particular hot water, comprising: - a lower module, for example resting on the ground; - an upper module overlying the lower module; - one or more intermediate modules (8, 9) positioned in a releasable manner between the lower module and the upper module; wherein each of said modules (2,6,8,9) comprises a side wall (10,12,14,16) which extends around a tank axis and at least one wall (38,40,42,44,46,48) positioned transversally to said axis between at least one pair of modules to define a separate module chamber (18,20,22,24); the module chambers (18,20,22,24) being fluidically connected or connectable through inner apertures (54, 56, 58) defined by the modules (2, 6, 8, 9) for the passage of liquid between adjacent modules; - at least one input aperture of the liquid inside the tank (1, 1') and one or more exit passages (26,28,30,32) of the liquid from the modular tank respectively suitable for connecting up to fluidic supply means and to at least one external utility or a further tank; said tank being characterized in that a deviator component comprising a deviation plate is provided frontally to at least one inner aperture (54, 56, 58) to increase the residence time of the liquid in the tank (1, 1'), said plate being of sufficiently large size to distribute the incoming liquid along a transversal surface greater than the cross-section of at least one of the inner apertures (54, 56, 58). - a lower module, for example resting on the ground; - an upper module overlying the lower module; - one or more intermediate modules (8, 9) positioned in a releasable manner between the lower module and the upper module; wherein each of said modules (2,6,8,9) comprises a side wall (10,12,14,16) which extends around a tank axis and at least one wall (38,40,42,44,46,48) positioned transversally to said axis between at least one pair of modules to define a separate module chamber (18,20,22,24); the module chambers (18,20,22,24) being fluidically connected or connectable through inner apertures (54, 56, 58) defined by the modules (2, 6, 8, 9) for the passage of liquid between adjacent modules; - at least one input aperture of the liquid inside the tank (1, 1') and one or more exit passages (26,28,30,32) of the liquid from the modular tank respectively suitable for connecting up to fluidic supply means and to at least one external utility or a further tank; said tank being characterized in that a deviator component comprising a deviation plate is provided frontally to at least one inner aperture (54, 56, 58) to increase the residence time of the liquid in the tank (1, 1'), said plate being of sufficiently large size to distribute the incoming liquid along a transversal surface greater than the cross-section of at least one of the inner apertures (54, 56, 58).
An information processing apparatus comprising: a communication unit configured to receive, from a plurality of network-connected instruments, instrument information including a source, destination and type of data for each instance of communication between the network-connected instruments; and a data processing unit configured to generate display information that allows identification of data of inter-group communication between transmission data groups (71, 72, 73) and reception data groups (91, 92, 93), the display information indicating a respective group icon of each of the transmission data groups and reception data groups and indicating a status of each instance of communication between the transmission data groups and reception data groups; wherein the information processing apparatus is configured to set the transmission data groups including a plurality of pieces of transmission data of different types transmitted by individual transmitting network-connected instruments, the reception data groups including a plurality of pieces of reception data of different types received by individual receiving network-connected instruments and the status of each instance of communication between the transmission data groups and reception data groups using the instrument information, each of the transmission data groups and reception data groups including data for which start, stop and/or switching of transmission and reception can be collectively controlled. a communication unit configured to receive, from a plurality of network-connected instruments, instrument information including a source, destination and type of data for each instance of communication between the network-connected instruments; and a data processing unit configured to generate display information that allows identification of data of inter-group communication between transmission data groups (71, 72, 73) and reception data groups (91, 92, 93), the display information indicating a respective group icon of each of the transmission data groups and reception data groups and indicating a status of each instance of communication between the transmission data groups and reception data groups; wherein the information processing apparatus is configured to set the transmission data groups including a plurality of pieces of transmission data of different types transmitted by individual transmitting network-connected instruments, the reception data groups including a plurality of pieces of reception data of different types received by individual receiving network-connected instruments and the status of each instance of communication between the transmission data groups and reception data groups using the instrument information, each of the transmission data groups and reception data groups including data for which start, stop and/or switching of transmission and reception can be collectively controlled.
A gas turbine engine for an aircraft, comprising: a core engine defined about an axis; a fan driven by said core engine about said axis; a core nacelle defined at least partially about said core engine; a fan nacelle defined around said fan and at least partially around said core nacelle; a variable area fan nozzle (VAFN) to define a fan exit area downstream of said fan between said fan nacelle and said core nacelle; and a controller configured to control a fan blade flutter characteristic through control of said VAFN, characterised in that: said controller is configured to adjust said VAFN based on one of at least two operating schedules, wherein said at least two operating schedules includes a normal flight conditions schedule and an icing flight conditions schedule; and said controller is configured to adjust said VAFN based on said icing flight conditions schedule such that said VAFN is at least partially open during an aircraft takeoff, and said VAFN is fully closed during an aircraft climb, an aircraft cruise, an aircraft descent, and an aircraft approach. a core engine defined about an axis; a fan driven by said core engine about said axis; a core nacelle defined at least partially about said core engine; a fan nacelle defined around said fan and at least partially around said core nacelle; a variable area fan nozzle (VAFN) to define a fan exit area downstream of said fan between said fan nacelle and said core nacelle; and a controller configured to control a fan blade flutter characteristic through control of said VAFN, characterised in that: said controller is configured to adjust said VAFN based on one of at least two operating schedules, wherein said at least two operating schedules includes a normal flight conditions schedule and an icing flight conditions schedule; and said controller is configured to adjust said VAFN based on said icing flight conditions schedule such that said VAFN is at least partially open during an aircraft takeoff, and said VAFN is fully closed during an aircraft climb, an aircraft cruise, an aircraft descent, and an aircraft approach. said controller is configured to adjust said VAFN based on one of at least two operating schedules, wherein said at least two operating schedules includes a normal flight conditions schedule and an icing flight conditions schedule; and said controller is configured to adjust said VAFN based on said icing flight conditions schedule such that said VAFN is at least partially open during an aircraft takeoff, and said VAFN is fully closed during an aircraft climb, an aircraft cruise, an aircraft descent, and an aircraft approach.
Apparatus for processing preferably board-like workpieces which preferably consist, in at least one section, of wood, derived timber products, plastic or the like, having a tool assembly which acts on the workpiece and which has at least one tool, and a sensing device having at least one sensing roller which is mounted so as to be rotatable about its axis of rotation and which controls the position of the tool relative to the workpiece, wherein the sensing roller is mounted by means of an actuating assembly in such a way that its axis of rotation is adjustable relative to the associated tool, wherein the actuating assembly has a cam by means of which the sensing roller is mounted, the actuating assembly further has an actuating drive by means of which the axis of rotation of the sensing roller is adjustable relative to the associated tool, and the actuating drive is designed to drive the cam in rotation, characterised in that the actuating drive is connected to the cam by a shaft which in at least one section extends within a drive shaft of the associated processing tool.
A gate driver circuit (300,400,700) for driving a power switch, the gate driver circuit (300,400,700) comprising: a variable current source arranged to be coupled to the power switch and configured to supply a driving strength to the power switch; and a control unit (342, 402, 702) operatively coupled to the variable current source and configured to control the variable current source such that different driving strengths are supplied in at least two of a delay phase (510, 610), a commutation phase (512, 612), and a saturation phase (514, 614) when the power switch is transitioned to a first state, characterised in that the control unit (342, 402, 702) is further configured to determine an occurrence of the commutation phase (512, 612) and the saturation phase (514, 614) based on a time elapsed after a time T 1 at which a gate voltage (Vg) at the power switch starts rising in an open loop control mode, on a value of a voltage (Vkpe) between the kelvin emitter terminal and the power emitter terminal in a closed loop control mode, or a combination of both in a hybrid mode. a variable current source arranged to be coupled to the power switch and configured to supply a driving strength to the power switch; and a control unit (342, 402, 702) operatively coupled to the variable current source and configured to control the variable current source such that different driving strengths are supplied in at least two of a delay phase (510, 610), a commutation phase (512, 612), and a saturation phase (514, 614) when the power switch is transitioned to a first state, characterised in that the control unit (342, 402, 702) is further configured to determine an occurrence of the commutation phase (512, 612) and the saturation phase (514, 614) based on a time elapsed after a time T 1 at which a gate voltage (Vg) at the power switch starts rising in an open loop control mode, on a value of a voltage (Vkpe) between the kelvin emitter terminal and the power emitter terminal in a closed loop control mode, or a combination of both in a hybrid mode.
A sample insertion system, comprising a channel having a port connectable to a chamber; a sealing element arranged in the channel, the sealing element sealing off a volume from the channel; and a vacuum device to decrease a pressure in the channel, wherein the sealing element comprises a carrier member to carry a sample, characterized in that the sealing element is configured to move the carrier member towards the port in response to the pressure in the channel decreasing below a pressure in the volume sealed-off by the sealing element. a channel having a port connectable to a chamber; a sealing element arranged in the channel, the sealing element sealing off a volume from the channel; and a vacuum device to decrease a pressure in the channel, wherein the sealing element comprises a carrier member to carry a sample, characterized in that the sealing element is configured to move the carrier member towards the port in response to the pressure in the channel decreasing below a pressure in the volume sealed-off by the sealing element.
A fan impeller with fan blades (11, 31, 32), wherein a number n >2 of non-regularly arranged fan blades (11, 31, 32) is provided, and wherein the fan blades (11, 31, 32) are formed identically, wherein a number of air ducts is provided which are limited in each case by at least the fan blades (11, 31, 32), an air guide ring and a base body, characterised in that the fan blades (11, 31, 32) are axially set back as far as a radius on the intake side and in that the maximum axial extent of the fan blades (11, 31, 32) is greater than the maximum axial extent of the air guide ring, and in that the air ducts in each case form an air exit which comprises a radially oriented and an axially oriented partial region.
A method for improving or maintaining railway tracks having a ballast bed in which old ballast is extracted and is treated on site, characterized in that old ballast to be treated is transposed at at least one side of the ballast bed toward the track center; and in that the treatment residues are stored temporarily on the surface which has thereby become free.
A package comprising: a main body configured to form a storage space to accommodate a packaged object; and an impact buffer rib (16, 23) disposed on a side of the main body and outside the storage space; the main body and impact buffer rib being formed of sheet members; and characterized by: the impact buffer rib (16, 23) including: root portions (16b, 23b) that are both end portions of the impact buffer rib (16, 23) coupling to the main body and having a first height (Hb); and a central portion (16a, 23a) between the root portions (16b, 23b), the central portion (16a, 23a) having a second height (Ha) larger than the first height (Hb). a main body configured to form a storage space to accommodate a packaged object; and an impact buffer rib (16, 23) disposed on a side of the main body and outside the storage space; the main body and impact buffer rib being formed of sheet members; and characterized by: the impact buffer rib (16, 23) including: root portions (16b, 23b) that are both end portions of the impact buffer rib (16, 23) coupling to the main body and having a first height (Hb); and a central portion (16a, 23a) between the root portions (16b, 23b), the central portion (16a, 23a) having a second height (Ha) larger than the first height (Hb). root portions (16b, 23b) that are both end portions of the impact buffer rib (16, 23) coupling to the main body and having a first height (Hb); and a central portion (16a, 23a) between the root portions (16b, 23b), the central portion (16a, 23a) having a second height (Ha) larger than the first height (Hb).
A pack (1; 101) for receiving cigarettes or tobacco sticks, comprising a first telescopic element (20; 120) and a second telescopic element (40; 140), which is displaceably mounted in the first telescopic element (20; 120), wherein the first telescopic element (20; 120) or the second telescopic element (40; 140) has an opening (42; 142) in a lateral surface, which is arranged such that it is closed in a first relative position of the first telescopic element (20; 120) and the second telescopic element (40; 140) and is open in a second relative position of the first telescopic element (20; 120) and the second telescopic element (40; 140), so that a first receiving space for cigarette butts or used tobacco sticks is accessible, wherein the first telescopic element (20; 120) and/or the second telescopic element (40; 140) at least partially enclose a second receiving space (9; 109) for cigarettes or tobacco sticks, which is separated from the first receiving space, wherein the opening (42; 142) is formed in the second telescopic element (40; 140), wherein the second telescopic element (40; 140) is formed box-like with a closed bottom (6; 106), and wherein the first telescopic element (20; 120) is formed box-like with an open bottom, characterized in that an inner part (60; 160) is arranged non-displaceably on the first telescopic element (20; 120), wherein the second telescopic element (40; 140) is displaceable between the first telescopic element (20; 120) and the inner part (60; 160) and the inner part (60; 160) forms the second receiving space (9; 109) separated from the first receiving space. wherein the opening (42; 142) is formed in the second telescopic element (40; 140), wherein the second telescopic element (40; 140) is formed box-like with a closed bottom (6; 106), and wherein the first telescopic element (20; 120) is formed box-like with an open bottom, characterized in that an inner part (60; 160) is arranged non-displaceably on the first telescopic element (20; 120), wherein the second telescopic element (40; 140) is displaceable between the first telescopic element (20; 120) and the inner part (60; 160) and the inner part (60; 160) forms the second receiving space (9; 109) separated from the first receiving space.
A method for extracting keratin proteins comprising: a. Treating a keratin protein source with an oxidizing or reducing agent to solubilize keratin proteins; b. Separating the soluble proteins from the keratin protein source by high speed centrifugation to produce a clarified soluble keratin protein solution; wherein said method comprises a dialysis step and said dialysis step comprises obtaining a soluble keratin protein solution which exhibits a conductivity of 0.6 mS or less. a. Treating a keratin protein source with an oxidizing or reducing agent to solubilize keratin proteins; b. Separating the soluble proteins from the keratin protein source by high speed centrifugation to produce a clarified soluble keratin protein solution;
A system for treating a bifurcated vessel, the system comprising: a first delivery catheter comprising a first elongate shaft with a proximal end and a distal end, a first expandable member adjacent the distal end of the first elongate shaft, an auxiliary expandable member disposed under the first expandable member, and a first radially expandable stent disposed over both the first expandable member and the auxiliary expandable member, wherein the first stent comprises a sidewall having a side hole therethrough, and wherein the first stent has a crimped configuration and an expanded configuration, in the crimped configuration the first stent is coupled with the first expandable member, and in the expanded configuration the first stent is configured to support a vessel wall; and a second delivery catheter comprising a second elongate shaft with a proximal end and a distal end, a second expandable member adjacent the distal end of the second elongate shaft, wherein a portion of the second delivery catheter is disposed under a portion of the first radially expandable stent, and a portion of the second delivery catheter passes through the side hole in the first radially expandable stent, and wherein in the crimped configuration, the first stent is crimped over the first and second delivery catheters such that the first stent remains attached to the first and the second delivery catheters during advancement of the delivery catheters through a blood vessel. a first delivery catheter comprising a first elongate shaft with a proximal end and a distal end, a first expandable member adjacent the distal end of the first elongate shaft, an auxiliary expandable member disposed under the first expandable member, and a first radially expandable stent disposed over both the first expandable member and the auxiliary expandable member, wherein the first stent comprises a sidewall having a side hole therethrough, and wherein the first stent has a crimped configuration and an expanded configuration, in the crimped configuration the first stent is coupled with the first expandable member, and in the expanded configuration the first stent is configured to support a vessel wall; and a second delivery catheter comprising a second elongate shaft with a proximal end and a distal end, a second expandable member adjacent the distal end of the second elongate shaft, wherein a portion of the second delivery catheter is disposed under a portion of the first radially expandable stent, and a portion of the second delivery catheter passes through the side hole in the first radially expandable stent, and wherein in the crimped configuration, the first stent is crimped over the first and second delivery catheters such that the first stent remains attached to the first and the second delivery catheters during advancement of the delivery catheters through a blood vessel.
Holder for a milling and/or drilling tool comprising a chuck configured as a contraction chuck which has a coupling section for clamping the chuck into a machine tool at one end, wherein the other end has a central bore which is configured as a holder for the shaft of a tool, and wherein in the jacket region of the holder approximately parallel to the central bore, at least one bore is provided for spraying the tool with a liquid and/or gaseous cooling medium, which is connected to a coaxially provided bore in the coupling section for feeding, and an undercut provided with a larger diameter is arranged in the central bore to form an annular space around the shaft inserted in the bore, characterized in that in order to form an inlet opening for the cooling medium, the bore for spraying penetrates the annular space at the lower end tangentially in some regions, wherein the upper end of the bore for spraying opens into a constriction at the head region of the holder, which is covered by a sleeve-like cap covering the constriction in the head region of the holder and which forms an annular gap with the jacket of the constriction and a front-end opening ring on the receptacle.
A method comprising: receiving, by a wireless device, configuration parameters of a cell; activating a first uplink bandwidth part, BWP, associated with the cell and a second uplink BWP associated with the cell; receiving downlink control information, DCI, comprising: a first field indicating a downlink BWP; and a second field indicating the first uplink BWP or the second uplink BWP; receiving, via the downlink BWP indicated by the first field, a transport block; and transmitting, via an uplink BWP indicated by the second field, acknowledgement information associated with the transport block. receiving, by a wireless device, configuration parameters of a cell; activating a first uplink bandwidth part, BWP, associated with the cell and a second uplink BWP associated with the cell; receiving downlink control information, DCI, comprising: a first field indicating a downlink BWP; and a second field indicating the first uplink BWP or the second uplink BWP; a first field indicating a downlink BWP; and a second field indicating the first uplink BWP or the second uplink BWP; receiving, via the downlink BWP indicated by the first field, a transport block; and transmitting, via an uplink BWP indicated by the second field, acknowledgement information associated with the transport block.