mhurhangee/ep-ind-claims huggingface dataset:
A system comprising: a display (600,160); an input device; a robotic arm; an endoscopic device having a flexible body, steerable tip, control means for causing bending of the flexible body and steering of the steerable tip; and electromechanical interface for electrically and mechanically coupling the endoscopic device to the robotic arm; and one or more processors (130, 140, 150) adapted to: i) control bending of the flexible body and steering of the steerable tip of the endoscopic device using motors of the robotic arm and/or of the electromechanical interface and the control means of the endoscopic device, in response to operator manipulation of the input device, ii) determine a current position of a reference point on the steerable tip of the endoscopic device relative to a reference frame, iii) determine a first vector from the current position of the reference point to a position of a first landmark relative to the reference frame, iv) transform the first vector from the reference frame to an image reference frame that corresponds to the perspective of an image capturing device disposed at a tip of the endoscopic device, and v) display a graphical representation of the transformed first vector along with a current image captured by the image capturing device on the display (600,160) so as to indicate a direction to steer the tip of the endoscopic device towards the first landmark. a display (600,160); an input device; a robotic arm; an endoscopic device having a flexible body, steerable tip, control means for causing bending of the flexible body and steering of the steerable tip; and electromechanical interface for electrically and mechanically coupling the endoscopic device to the robotic arm; and one or more processors (130, 140, 150) adapted to: i) control bending of the flexible body and steering of the steerable tip of the endoscopic device using motors of the robotic arm and/or of the electromechanical interface and the control means of the endoscopic device, in response to operator manipulation of the input device, ii) determine a current position of a reference point on the steerable tip of the endoscopic device relative to a reference frame, iii) determine a first vector from the current position of the reference point to a position of a first landmark relative to the reference frame, iv) transform the first vector from the reference frame to an image reference frame that corresponds to the perspective of an image capturing device disposed at a tip of the endoscopic device, and v) display a graphical representation of the transformed first vector along with a current image captured by the image capturing device on the display (600,160) so as to indicate a direction to steer the tip of the endoscopic device towards the first landmark.
A method of testing the integrity of a pipe lining (13; 113), the method comprising pulling the pipe lining (13; 113) at least partially through a host pipe (11; 111)to be lined via apparatus comprising one or more dies which temporarily reduces the external diameter of the pipe lining (13; 113), and performing a leak test on the pipe lining (13; 113) prior to releasing pulling tension on the pipe lining (13; 113).
Forming tool having an anti-adhesive coating based on organomodified nano-scaled SiO 2 -particles, obtainable by preparing of a coating agent by reaction of a) solutions of colloidal silicon dioxide with an average particle size of a diameter of 5 to 150 nanometers, b) organofunctional trialkoxysilanes of the general formula R'-Si 3, wherein R' represents an alkyl substituent, which is optionally fluorinated, with 1 to 6 carbon atoms, a vinyl, acryloyl, methacryloyl, γ-glycidoxypropyl or γ-methacryloxypropyl substituent and R is an alkyl substituent with 1 to 8 carbon atoms, wherein at least 70 weight-% of the starting component b) consist of a trialkoxysilane, applying thus prepared coating agent to the surface of a metal or plastic forming tool, and curing the coating prepared in step. preparing of a coating agent by reaction of a) solutions of colloidal silicon dioxide with an average particle size of a diameter of 5 to 150 nanometers, b) organofunctional trialkoxysilanes of the general formula R'-Si 3, wherein R' represents an alkyl substituent, which is optionally fluorinated, with 1 to 6 carbon atoms, a vinyl, acryloyl, methacryloyl, γ-glycidoxypropyl or γ-methacryloxypropyl substituent and R is an alkyl substituent with 1 to 8 carbon atoms, wherein at least 70 weight-% of the starting component b) consist of a trialkoxysilane, a) solutions of colloidal silicon dioxide with an average particle size of a diameter of 5 to 150 nanometers, b) organofunctional trialkoxysilanes of the general formula R'-Si 3, wherein R' represents an alkyl substituent, which is optionally fluorinated, with 1 to 6 carbon atoms, a vinyl, acryloyl, methacryloyl, γ-glycidoxypropyl or γ-methacryloxypropyl substituent and R is an alkyl substituent with 1 to 8 carbon atoms, applying thus prepared coating agent to the surface of a metal or plastic forming tool, and curing the coating prepared in step.
A device for connecting a fixed line to an absorber pipe of a solar-thermal power plant, wherein a swivel movement of at least one solar collector can be performed around an axis and an absorber pipe can be moved with the swivel movement, comprising a) a flexible pipe connection between the fixed line and the absorber pipe, wherein the flexible pipe connection includes a metal hose being formed as a multilayer corrugated metal hose and the flexible pipe connection is coupled with a compensator system comprising at least one angular compensator, at least one universal compensator and/or at least one cardanic compensator, in particular three angular compensators, and b) a means for a torque-free and/or force-free connection of the flexible pipeline to the absorber pipe, wherein at one end the flexible pipe connection is coupled with a rotary feedthrough, at least one drive is arranged in alignment with the axis of rotation of the rotary feedthrough, and the means for the torque-free and/or force-free connection includes the flexible pipeline whose first end is connected to the absorber pipe and whose second end is connected to the fixed line via the rotary feedthrough and is rotatably mounted, wherein the axis of rotation of the second end is in alignment with the swivel axis of the at least one solar collector. a) a flexible pipe connection between the fixed line and the absorber pipe, wherein the flexible pipe connection includes a metal hose being formed as a multilayer corrugated metal hose and the flexible pipe connection is coupled with a compensator system comprising at least one angular compensator, at least one universal compensator and/or at least one cardanic compensator, in particular three angular compensators, and b) a means for a torque-free and/or force-free connection of the flexible pipeline to the absorber pipe, wherein at one end the flexible pipe connection is coupled with a rotary feedthrough, at least one drive is arranged in alignment with the axis of rotation of the rotary feedthrough, and the means for the torque-free and/or force-free connection includes the flexible pipeline whose first end is connected to the absorber pipe and whose second end is connected to the fixed line via the rotary feedthrough and is rotatably mounted, wherein the axis of rotation of the second end is in alignment with the swivel axis of the at least one solar collector.
Clockwork movement designed to be integrated in the case of a wristwatch and comprising a kinematic chain for modifying the angular position of at least one hand (91, 92, 93), said hand being a minutes hand, a hours hand or a seconds hand, said kinematic chain comprising at least one belt (20, 21, 24, 25, 42, 43, 44, 45, 47) for transmitting the movements and/or the couples between at least two pulleys (150, 160, 170, 180, 29, 30, 270, 271), characterized in that said at least one belt (20, 21) is at least partially visible on the lower face of the movement, on the side of a display of said minutes, hours or seconds.
A method for receiving a Device-to-Device, D2D, signal by a D2D User equipment, UE, in a wireless communication system, the method is performed in the D2D User equipment, UE, and comprising the steps of: determining a D2D resource pool of a neighborung cell by using an offset from System Frame Number, SFN, 0 of a serving cell and a period of the D2D resource pool; and receiving a D2D signal transmitted on the D2D resource pool; wherein the determining step further considers whether the period of the D2D resource pool is a divisor of the number of subframes in one SFN cycle. determining a D2D resource pool of a neighborung cell by using an offset from System Frame Number, SFN, 0 of a serving cell and a period of the D2D resource pool; and receiving a D2D signal transmitted on the D2D resource pool; wherein the determining step further considers whether the period of the D2D resource pool is a divisor of the number of subframes in one SFN cycle.
A foldable display mounting structure, usable in an electronic device, wherein the foldable display mounting structure comprises: a foldable display, wherein the foldable display is flexible and bendable, the foldable display comprises a flexible cover and a flexible displaying module, both the flexible cover and the flexible displaying module are flexible and bendable, the flexible cover is transparent, the flexible displaying module displays through the flexible cover, the foldable display further comprises a first displaying part and a second displaying part, and both the first displaying part and the second displaying part are configured to display information; a support mechanical part, wherein the support mechanical part is fixedly connected to the foldable display, the support mechanical part is located on a side, facing a housing of the electronic device, of the foldable display, and is configured to support the foldable display; and at least one connecting piece, wherein the connecting piece is fixed to the support mechanical part by using a thermosetting resin layer, the connecting piece is fixedly connectable to a middle frame of the electronic device, and is configured to mount the foldable display and the support mechanical part on the electronic device a support mechanical part, wherein the support mechanical part is fixedly connected to the foldable display, the support mechanical part is located on a side, facing a housing of the electronic device, of the foldable display, and is configured to support the foldable display; and at least one connecting piece, wherein the connecting piece is fixed to the support mechanical part by using a thermosetting resin layer, the connecting piece is fixedly connectable to a middle frame of the electronic device, and is configured to mount the foldable display and the support mechanical part on the electronic device
A method for manufacturing an oriented electrical steel sheet, comprising: providing a slab including, as wt%, Si at equal to or less than 4.0 % excluding 0 %, C at 0.001 % to 0.4 %, and Mn at 0.001 to 2.0 %, and including a balance including Fe and inevitably mixed and input impurities and optionally including Al at equal to or less than 0.01 wt% excluding 0 wt%; reheating the slab; manufacturing a hot steel sheet by hot-rolling the slab; performing hot-rolled steel sheet annealing to the hot steel sheet; primarily cold-rolling the hot-rolled steel sheet annealed hot steel sheet; decarburization-annealing the cold-rolled steel sheet; secondarily cold-rolling the decarburization-annealed steel sheet; and finally annealing the cold-rolled steel sheet, wherein in the step of finally annealing the cold-rolled steel sheet includes a first step for performing the same in an atmosphere with the dew point temperature of 10 °C to 70 °C at the temperature of 850 °C to 1150 °C, and a second step for performing the same in a mixed gas atmosphere including hydrogen and nitrogen with a dew point temperature that is equal to or less than 10 °C at a temperature of 900 °C to 1200 °C, wherein the first step is performed for equal to or less than 300 seconds, and the second step is performed for 60 seconds to 300 seconds. providing a slab including, as wt%, Si at equal to or less than 4.0 % excluding 0 %, C at 0.001 % to 0.4 %, and Mn at 0.001 to 2.0 %, and including a balance including Fe and inevitably mixed and input impurities and optionally including Al at equal to or less than 0.01 wt% excluding 0 wt%; reheating the slab; manufacturing a hot steel sheet by hot-rolling the slab; performing hot-rolled steel sheet annealing to the hot steel sheet; primarily cold-rolling the hot-rolled steel sheet annealed hot steel sheet; decarburization-annealing the cold-rolled steel sheet; secondarily cold-rolling the decarburization-annealed steel sheet; and finally annealing the cold-rolled steel sheet, wherein in the step of finally annealing the cold-rolled steel sheet includes a first step for performing the same in an atmosphere with the dew point temperature of 10 °C to 70 °C at the temperature of 850 °C to 1150 °C, and a second step for performing the same in a mixed gas atmosphere including hydrogen and nitrogen with a dew point temperature that is equal to or less than 10 °C at a temperature of 900 °C to 1200 °C, wherein the first step is performed for equal to or less than 300 seconds, and the second step is performed for 60 seconds to 300 seconds.
An apparatus comprising: an internal circuit; a power supply line (130, 135); and a power gating control circuit comprising a switch (110, 120) coupled between the internal circuit and the power supply line, the power gating control circuit configured to: initiate supplying a power supply voltage from the power supply line to the internal circuit responsive, at least in part, to a first change from a first state to a second state of a control signal; detect, with a leakage monitor (225, 230) of the power gating control circuit, an amount of a leakage current of the internal circuit; continue supplying the power supply voltage from the power supply line to internal circuit for a timeout period, wherein the timeout period begins at a second change from the second state to the first state of the control signal and a duration of the timeout period is based, at least in part, on a temperature dependency of the amount of the leakage current of the internal circuit, wherein the duration of the timeout period is inversely proportional to a temperature of the internal circuit, wherein the timeout period is a period of time during which the power gating control circuit prevents deactivation of the switch; and continue supplying the power supply voltage from the power supply line to the internal circuit when a third change from the first state to the second state occurs during the timeout period. an internal circuit; a power supply line (130, 135); and a power gating control circuit comprising a switch (110, 120) coupled between the internal circuit and the power supply line, the power gating control circuit configured to: initiate supplying a power supply voltage from the power supply line to the internal circuit responsive, at least in part, to a first change from a first state to a second state of a control signal; detect, with a leakage monitor (225, 230) of the power gating control circuit, an amount of a leakage current of the internal circuit; continue supplying the power supply voltage from the power supply line to internal circuit for a timeout period, wherein the timeout period begins at a second change from the second state to the first state of the control signal and a duration of the timeout period is based, at least in part, on a temperature dependency of the amount of the leakage current of the internal circuit, wherein the duration of the timeout period is inversely proportional to a temperature of the internal circuit, wherein the timeout period is a period of time during which the power gating control circuit prevents deactivation of the switch; and continue supplying the power supply voltage from the power supply line to the internal circuit when a third change from the first state to the second state occurs during the timeout period.
Securing device for an arrangement comprising at least one electrical component, which is an electrical energy storage unit and has at least one electrical contact element, and at least one, in particular rail-like, electrical connection element, wherein the contact element on the component is to be connected or is connected to the electrical connection element by means of an electrically conductive adhesive, wherein at least one actuating means, by means of which an actuating force that moves the component and the connection element away from one another can be exerted, is arranged between the component and the electrical connection element, wherein the actuating means is configured as a compression spring or comprises a compression spring, wherein the compression spring is configured in the shape of a ring or screw, characterised in that the compression spring is arranged circumferentially around the contact element on the energy storage unit.
Flexible laminate, formed by at least a first layer of a first flexible elastomer and a second layer of a second flexible elastomer, which are connected to one another by an intermediate layer applied to the first layer, characterized in that the intermediate layer is a parylene layer with an irregular surface formed during the application of the parylene layer and in that the second elastomer or an adhesive connected to the second layer at least partially fills the irregularities of the surface of the parylene layer, so that the second elastomer or the adhesive connected to the second elastomer gets caught by the surface of the parylene layer thereby effecting a predominantly mechanical connection of the first layer with the second layer by means of the mechanical connection with the parylene layer.
A time-sensitive networking communication method, comprising: receiving, by an application function network element from a session management network element, a virtual switching node identifier, wherein the virtual switching node identifier identifies a virtual switching node that serves as a logical switching node in a time-sensitive network and that comprises the application function network element, a user plane function network element and a user terminal, wherein a physical port identifier identifies a physical port of the virtual switching node, and wherein the physical port is on the user plane function network element; receiving, by the application function network element from the session management network element, a virtual port identifier identifing a virtual port of the virtual switching node on the user terminal, wherein the virtual port corresponds to a PDU session established for the user terminal; obtaining, by the application function network element, attribute information of the virtual switching node, wherein the attribute information comprises first attribute information of the physical port and second attribute information of the virtual port; and sending, by the application function network element, the attribute information to a network configuration network element in the time-sensitive network for registering or updating the virtual switching node. receiving, by an application function network element from a session management network element, a virtual switching node identifier, wherein the virtual switching node identifier identifies a virtual switching node that serves as a logical switching node in a time-sensitive network and that comprises the application function network element, a user plane function network element and a user terminal, wherein a physical port identifier identifies a physical port of the virtual switching node, and wherein the physical port is on the user plane function network element; receiving, by the application function network element from the session management network element, a virtual port identifier identifing a virtual port of the virtual switching node on the user terminal, wherein the virtual port corresponds to a PDU session established for the user terminal; obtaining, by the application function network element, attribute information of the virtual switching node, wherein the attribute information comprises first attribute information of the physical port and second attribute information of the virtual port; and sending, by the application function network element, the attribute information to a network configuration network element in the time-sensitive network for registering or updating the virtual switching node.
A door brace comprising: a door engagement member comprising a bottom flange and an engagement wall, the bottom flange being adapted to be located under a bottom edge of a door and comprising one face comprising a textured surface adapted to engage with the door, and the engagement wall having one face adapted to be located against part of one side of the door; an angled leg comprising a first section hingedly connected at one end to an opposite face of the engagement wall and a second section extending from the first section at a first angle, the leg being movable between a stowed position and an extended position in which the first section makes a second angle, larger than the first angle, to the engagement wall; an engagement foot pivotably mounted on a mounting element provided at the other end of the leg, the length of the mounting element being adjustable to move the engagement foot between a released position and an engagement position; and a hinge stop configured to prevent the leg moving beyond a maximum extended position in which the second angle has a maximum value, wherein, in a said extended position, the second section of the leg extends at a third angle to the engagement wall equal to the difference between the second and first angles and the engagement foot in the engagement position causes a clamping force to be applied between the bottom of the door and an area of floor adjacent to the door. a door engagement member comprising a bottom flange and an engagement wall, the bottom flange being adapted to be located under a bottom edge of a door and comprising one face comprising a textured surface adapted to engage with the door, and the engagement wall having one face adapted to be located against part of one side of the door; an angled leg comprising a first section hingedly connected at one end to an opposite face of the engagement wall and a second section extending from the first section at a first angle, the leg being movable between a stowed position and an extended position in which the first section makes a second angle, larger than the first angle, to the engagement wall; an engagement foot pivotably mounted on a mounting element provided at the other end of the leg, the length of the mounting element being adjustable to move the engagement foot between a released position and an engagement position; and a hinge stop configured to prevent the leg moving beyond a maximum extended position in which the second angle has a maximum value, wherein, in a said extended position, the second section of the leg extends at a third angle to the engagement wall equal to the difference between the second and first angles and the engagement foot in the engagement position causes a clamping force to be applied between the bottom of the door and an area of floor adjacent to the door.