mhurhangee/ep-ind-claims huggingface dataset:
A control method for a machine tool for machining a workpiece while causing relative movement between a tool rotated by a spindle motor and the workpiece fixed to a table, comprising the steps of: calculating an actual cutting force received from the workpiece at a predetermined position of the tool during machining of the workpiece based on a torque command value, a current command value, or an actual current value of the spindle motor, the actual cutting force acting in a radial direction of the tool; displaying the calculated actual cutting force on a display part; determining a determination value based on an allowable cutting force that is allowed to be applied at the predetermined position of the tool; and reducing a relative speed of the tool with respect to the workpiece when the actual cutting force exceeds the determination value; wherein the step of determining the determination value includes a step of calculating the allowable cutting force for the tool, which relates to damage to the tool, calculating the allowable cutting force for a bearing (7,8), which relates to damage to the bearing (7,8) in a spindle device and calculating the allowable cutting force for the spindle motor, which relates to damage to the spindle motor and a step of setting the determination value based on the smallest allowable cutting force among the allowable cutting force for the tool, the allowable cutting force for the bearing (7,8) and the allowable cutting force for the spindle motor each time the tool is changed. calculating an actual cutting force received from the workpiece at a predetermined position of the tool during machining of the workpiece based on a torque command value, a current command value, or an actual current value of the spindle motor, the actual cutting force acting in a radial direction of the tool; displaying the calculated actual cutting force on a display part; determining a determination value based on an allowable cutting force that is allowed to be applied at the predetermined position of the tool; and reducing a relative speed of the tool with respect to the workpiece when the actual cutting force exceeds the determination value; wherein the step of determining the determination value includes a step of calculating the allowable cutting force for the tool, which relates to damage to the tool, calculating the allowable cutting force for a bearing (7,8), which relates to damage to the bearing (7,8) in a spindle device and calculating the allowable cutting force for the spindle motor, which relates to damage to the spindle motor and a step of setting the determination value based on the smallest allowable cutting force among the allowable cutting force for the tool, the allowable cutting force for the bearing (7,8) and the allowable cutting force for the spindle motor each time the tool is changed.
A medical device delivery apparatus for delivering an implantable medical device (30, 38, 58, 72, 100, 178, 192, 282, 350, 368, 396), the delivery apparatus comprising: an elongated body (6, 54, 94, 120, 126, 146, 168, 224, 260, 346, 360, 390) configured for insertion into the body of a patient, comprising: a chamber (10, 88, 96, 124, 118, 130, 170, 202, 220) located at a distal portion of the elongated body, said chamber being configured to receive the medical device; and characterized in that the delivery apparatus further comprises: a reservoir(4, 8) for holding a therapeutic agent, the reservoir being positioned in said elongated body; and means (16, 44, 128, 194, 226) for releasing the therapeutic agent from said reservoir into said chamber. a chamber (10, 88, 96, 124, 118, 130, 170, 202, 220) located at a distal portion of the elongated body, said chamber being configured to receive the medical device; and characterized in that the delivery apparatus further comprises: a reservoir(4, 8) for holding a therapeutic agent, the reservoir being positioned in said elongated body; and means (16, 44, 128, 194, 226) for releasing the therapeutic agent from said reservoir into said chamber. a reservoir(4, 8) for holding a therapeutic agent, the reservoir being positioned in said elongated body; and means (16, 44, 128, 194, 226) for releasing the therapeutic agent from said reservoir into said chamber.
A weapons platform comprising an undercarriage on which a weapon can be arranged, wherein the undercarriage can be supported with respect to the ground by means of a hydraulic supporting device for absorbing firing reaction forces, an energy accumulator hydraulically coupled to the supporting device and intended for accumulating the energy absorbed by the supporting device characterized by an initial energy generator for providing a basic energy content of the energy accumulator.
A patient interface, comprising: a seal portion sized and shaped to surround the nose and/or mouth of a user and adapted to create at least a substantial seal with the user's face, the seal portion comprising a seal inlet; a frame portion comprising a frame inlet and a frame outlet; a connector that permits the interface to be coupled to a conduit that is in fluid communication with a gas delivery device, the connector configured to be coupled with the frame inlet, wherein the connector and frame inlet have a ball and socket connection; and a coupling between the seal inlet and the frame outlet to permit the seal portion to move relative to the frame portion, wherein the coupling comprises a ball and socket joint or a shaft and bearing joint. a seal portion sized and shaped to surround the nose and/or mouth of a user and adapted to create at least a substantial seal with the user's face, the seal portion comprising a seal inlet; a frame portion comprising a frame inlet and a frame outlet; a connector that permits the interface to be coupled to a conduit that is in fluid communication with a gas delivery device, the connector configured to be coupled with the frame inlet, wherein the connector and frame inlet have a ball and socket connection; and a coupling between the seal inlet and the frame outlet to permit the seal portion to move relative to the frame portion, wherein the coupling comprises a ball and socket joint or a shaft and bearing joint.
A grinding tool comprising - a main body having -- a binder, -- at least one fibre ply (F 1 to F 4) embedded in the binder and - an abrasive layer, characterized in that in order to achieve a free relative movement within the at least one fibre ply (F 1 to F 4) during grinding, the at least one fibre ply (F 1 to F 4) is arranged in the binder in a partially movable manner. - a main body having -- a binder, -- at least one fibre ply (F 1 to F 4) embedded in the binder and -- a binder, -- at least one fibre ply (F 1 to F 4) embedded in the binder and - an abrasive layer,
The use of a cyclodextrin for reducing polysorbate degradation in an aqueous formulation comprising a polysorbate and a cyclodextrin, wherein the resulting w/w ratio of cyclodextrin to polysorbate is greater than about 37.5:1 and wherein the formulation comprises about 0.01% (w/v) to 0.4% (w/v) polysorbate, and wherein the cyclodextrin is selected from HP-α-CD, HP-β-CD, and SBE-β-CD.
Outdoor unit for a heat pump, the outdoor unit comprising: a bottom plate, a heat exchanger supported on the bottom plate, the bottom plate comprising a drainage hole and an elongated drainage channel located below the heat exchanger at least along a portion of the heat exchanger and sloping towards the drainage hole, wherein the bottom plate has an outer and/or an inner support surface formed by a bank of the drainage channel, the heat exchanger being, along more than half of the longitudinal extension of the drainage channel, in contact with at least part of the outer and/or inner support surfaces and thereby supported in a vertical direction, characterized in that the width (W 2) of the drainage channel at an upper opening of the drainage channel is at least in portions along the longitudinal extension of the drainage channel smaller than the width of the heat exchanger so that the lower side of the heat exchanger closes the upper opening of the drainage channel in said portion, wherein the width of the drainage channel is the dimension of the drainage channel in a direction parallel to the bottom plate and perpendicular to the longitudinal extension of the drainage channel and the width of the heat exchanger is the dimension of the heat exchanger in a direction parallel to the bottom plate and perpendicular to the longitudinal extension of the drainage channel. a bottom plate, a heat exchanger supported on the bottom plate, the bottom plate comprising a drainage hole and an elongated drainage channel located below the heat exchanger at least along a portion of the heat exchanger and sloping towards the drainage hole, wherein the bottom plate has an outer and/or an inner support surface formed by a bank of the drainage channel, the heat exchanger being, along more than half of the longitudinal extension of the drainage channel, in contact with at least part of the outer and/or inner support surfaces and thereby supported in a vertical direction, characterized in that the width (W 2) of the drainage channel at an upper opening of the drainage channel is at least in portions along the longitudinal extension of the drainage channel smaller than the width of the heat exchanger so that the lower side of the heat exchanger closes the upper opening of the drainage channel in said portion, wherein the width of the drainage channel is the dimension of the drainage channel in a direction parallel to the bottom plate and perpendicular to the longitudinal extension of the drainage channel and the width of the heat exchanger is the dimension of the heat exchanger in a direction parallel to the bottom plate and perpendicular to the longitudinal extension of the drainage channel.
A multilayer film-foam composite structure comprising from 5 to 300 layers, the layers alternating between film and foam, wherein each of the layers is in abutting relationship with and fused to the immediate adjacent layers and each foam layer comprises anisotropic cells that have an anisotropic X to Z ratio of greater than 2, wherein X is the average cell size in the machine direction and Z is the average cell size in the thickness direction, and wherein each foam layer has a thickness of from 10 μm to 1,000 μm.
A transmission apparatus comprising: a configuration section adapted to configure a mapping region in which control information is mapped, the control information including information about a resource region allocated to transmission data and data size information about a size of the transmission data, the configuration section being adapted to configure the mapping region for control information targeted for processing, in accordance with a data size indicated by the control information targeted for processing, from among first to N-th resource regions provided in sequential order in a time direction within a communication unit time, wherein N is a natural number no less than 2; and a mapping control section adapted to map the control information targeted for processing to the configured mapping region and transmit the control information, wherein among the first to N-th resource regions, a maximum size value for the first resource region is configured in accordance with a maximum value of a timing advance value, maximum size values for the second to N-th resource regions are configured in accordance with the timing advance value, and in order to cause reception timings of signals transmitted from a plurality of receiving apparatuses that receive the transmission data and the control information to match, the timing advance value is transmitted from the transmission apparatus to each of the plurality of receiving apparatuses. a configuration section adapted to configure a mapping region in which control information is mapped, the control information including information about a resource region allocated to transmission data and data size information about a size of the transmission data, the configuration section being adapted to configure the mapping region for control information targeted for processing, in accordance with a data size indicated by the control information targeted for processing, from among first to N-th resource regions provided in sequential order in a time direction within a communication unit time, wherein N is a natural number no less than 2; and a mapping control section adapted to map the control information targeted for processing to the configured mapping region and transmit the control information, wherein among the first to N-th resource regions, a maximum size value for the first resource region is configured in accordance with a maximum value of a timing advance value, maximum size values for the second to N-th resource regions are configured in accordance with the timing advance value, and in order to cause reception timings of signals transmitted from a plurality of receiving apparatuses that receive the transmission data and the control information to match, the timing advance value is transmitted from the transmission apparatus to each of the plurality of receiving apparatuses.
An electronically actuated locking differential comprising: a gear case; a pair of side gears (22,24) disposed within said gear case and operatively adapted for rotation with a corresponding pair of axle half shafts; a lock plate disposed within said gear case and operably associated with one of said side gears (22, 24) and being movable axially relative to the one of said side gears (22, 24); a return spring disposed within said gear case and cooperating with said lock plate to bias said lock plate axially away from the one of said side gears (22, 24) and an electronic actuator cooperating with said lock plate, said electronic actuator comprising a stator disposed about a portion of said gear case, said stator being non-rotating relative to said gear case, an electromagnetic coil associated with said stator, and an armature coupled to said lock plate, said armature being non-rotating and axially movable relative to said stator; wherein direct current power is supplied to said electromagnetic coil and magnetic energy is generated within said stator creating an attractive force between said armature and said stator to generate a force transferred to said lock plate causing it to compress said return spring and engage said side gear locking it to said gear case and thus locking the pair of axle half shafts; characterized in that said armature is a generally circular plate and has an outer flange extending axially and an inner flange extending axially, wherein said inner flange has a plurality of cutouts spaced circumferentially thereabout to focus the magnetic energy. a gear case; a pair of side gears (22,24) disposed within said gear case and operatively adapted for rotation with a corresponding pair of axle half shafts; a lock plate disposed within said gear case and operably associated with one of said side gears (22, 24) and being movable axially relative to the one of said side gears (22, 24); a return spring disposed within said gear case and cooperating with said lock plate to bias said lock plate axially away from the one of said side gears (22, 24) and an electronic actuator cooperating with said lock plate, said electronic actuator comprising a stator disposed about a portion of said gear case, said stator being non-rotating relative to said gear case, an electromagnetic coil associated with said stator, and an armature coupled to said lock plate, said armature being non-rotating and axially movable relative to said stator; wherein direct current power is supplied to said electromagnetic coil and magnetic energy is generated within said stator creating an attractive force between said armature and said stator to generate a force transferred to said lock plate causing it to compress said return spring and engage said side gear locking it to said gear case and thus locking the pair of axle half shafts;
An automobile trouble diagnosis method, characterized by comprising: obtaining at least two diagnostic trouble codes, DTCs; determining whether there are associated DTCs in the at least two DTCs according to a mapping relationship in a preset association list; if there are associated DTCs in the at least two DTCs, grouping the at least two DTCs to obtain DTC groups according to a DTC association; ranking the DTCs in each DTC group respectively; whereby the ranking comprises: determining DTCs from each DTC group that are ranked within a preset ranking range as main DTCs; ranking the main DTCs according to a first priority of a system to which each of the at least two DTCs belongs and a second priority of each of the main DTCs in the system to obtain a first ranking result; and outputting the first ranking result to an electronic device. obtaining at least two diagnostic trouble codes, DTCs; determining whether there are associated DTCs in the at least two DTCs according to a mapping relationship in a preset association list; if there are associated DTCs in the at least two DTCs, grouping the at least two DTCs to obtain DTC groups according to a DTC association; ranking the DTCs in each DTC group respectively; whereby the ranking comprises: determining DTCs from each DTC group that are ranked within a preset ranking range as main DTCs; ranking the main DTCs according to a first priority of a system to which each of the at least two DTCs belongs and a second priority of each of the main DTCs in the system to obtain a first ranking result; and outputting the first ranking result to an electronic device. determining DTCs from each DTC group that are ranked within a preset ranking range as main DTCs; ranking the main DTCs according to a first priority of a system to which each of the at least two DTCs belongs and a second priority of each of the main DTCs in the system to obtain a first ranking result; and outputting the first ranking result to an electronic device.
A gas turbine engine comprising: a housing surrounding a stationary vane and a rotating rotor blade, a turbine section including said stationary vane and said rotating rotor blade; said stationary vane being provided with a radially outer cooling air flow from a location adjacent a radially outer position in said housing; a dirt separator positioned in a flow path of said radially outer cooling air flow, said dirt separator being operable to remove impurities from said radially outer cooling air flow, such that air moving downstream of said dirt separator and toward said stationary vane carries less impurities; a blade outer air seal positioned adjacent said rotating rotor blade said radially outer cooling air flow also passing to cool said blade outer air seal; characterised in that said dirt separator has a radially outer leg that defines a space radially between said radially outer leg and said housing to capture impurities, and a radially inner leg that includes open area to allow air to flow downstream through said radially inner leg. a housing surrounding a stationary vane and a rotating rotor blade, a turbine section including said stationary vane and said rotating rotor blade; said stationary vane being provided with a radially outer cooling air flow from a location adjacent a radially outer position in said housing; a dirt separator positioned in a flow path of said radially outer cooling air flow, said dirt separator being operable to remove impurities from said radially outer cooling air flow, such that air moving downstream of said dirt separator and toward said stationary vane carries less impurities; a blade outer air seal positioned adjacent said rotating rotor blade said radially outer cooling air flow also passing to cool said blade outer air seal; characterised in that said dirt separator has a radially outer leg that defines a space radially between said radially outer leg and said housing to capture impurities, and a radially inner leg that includes open area to allow air to flow downstream through said radially inner leg.
A covering device (1, 1', 1", 1′′′) for covering a region in the interior of a motor vehicle, wherein the covering device (1, 1', 1", 1′′′), when in a mounted position, can be moved in a movement direction into a covering position, in which the region is covered, and into an uncovering position, in which the region is uncovered, wherein at least a portion of the covering device (1, 1', 1", 1′′′) can be illuminated, wherein the covering device (1, 1', 1", 1′′′) consists, at least in some regions, of a plurality of layers (10, 11, 12, 14), with at least one upper layer, which, in the mounted state, faces a user and which is light-transmissive at least in some regions, at least one supporting lower layer, and at least one light-transporting layer, which is accommodated between the upper and lower layers (10 and 11) and by means of which light beams can be transported toward the upper layer, wherein the layers (10, 11, 12, 14) are connected to one another and the lower layer is inflexible at least transversely to the movement direction, characterized in that the lower layer consists of a rib-like structure formed by a plurality of elongate elements extending transversely to the movement direction, wherein the rib-like structure is connected to a flexible layer, and wherein each element consists of a base part with a contour rectangular in cross-section and a downwardly protruding rib-like part integrally formed thereon.
A method for wireless communications by a base station, BS, comprising: transmitting a physical broadcast channel, PBCH, in at least one subframe of a radio frame; and repeating transmission of the PBCH in at least one of: the same subframe or in a different subframe of the radio frame, characterized in that repeating transmission of the PBCH is triggered by reception of a bundled random access channel, RACH, transmission from a user equipment, UE. transmitting a physical broadcast channel, PBCH, in at least one subframe of a radio frame; and repeating transmission of the PBCH in at least one of: the same subframe or in a different subframe of the radio frame, characterized in that repeating transmission of the PBCH is triggered by reception of a bundled random access channel, RACH, transmission from a user equipment, UE.
A method for producing hollow-body-shaped baked products from edible baked wafer cakes which are reshaped in the hot malleable state and are cooled and therefore solidified during and/or after the reshaping process, wherein the wafer cakes in the hot malleable state - are supplied to a deep-drawing opening - are brought by a pre-forming device in the fold regions from a substantially planar shape into a pre-formed shape which is curved in the fold regions, - and are deep drawn by a punch into a deep drawing opening, - wherein, influenced by the pre-forming, the fold regions of each individual wafer cake lie one above the other in multiple layers in the deep drawing process, characterized in that - the wafer cake is initially positioned flat on a drawing ring above the deep drawing opening, - is held there by a retaining force, - is then curved contrary to the retaining force by pre-curving elements of the pre-forming device in the fold regions and - is then deep drawn by the punch of the deep drawing device into the deep drawing opening. - are supplied to a deep-drawing opening - are brought by a pre-forming device in the fold regions from a substantially planar shape into a pre-formed shape which is curved in the fold regions, - and are deep drawn by a punch into a deep drawing opening, - wherein, influenced by the pre-forming, the fold regions of each individual wafer cake lie one above the other in multiple layers in the deep drawing process, characterized in that - the wafer cake is initially positioned flat on a drawing ring above the deep drawing opening, - is held there by a retaining force, - is then curved contrary to the retaining force by pre-curving elements of the pre-forming device in the fold regions and - is then deep drawn by the punch of the deep drawing device into the deep drawing opening.