mhurhangee/ep-ind-claims huggingface dataset:
Electric solenoid, comprising at least one solenoid body and a coil wire (25; 25a) surrounding the solenoid body on a peripheral surface of the solenoid body in the form of at least one winding, wherein the coil wire (25; 25a) consists of an electrically conductive wire core and an insulating layer surrounding the wire core at least in regions, wherein the wire core contains aluminum, characterized in that the wire core has graphene arranged in electrically conductive contact with the aluminum.
An electrical signal converter, comprising: a first input for receiving an analog input signal; a plurality of second inputs (340-1 to 340-3) for receiving a plurality of ordered reference voltages, each reference voltage provided at a different voltage level; a plurality of converter elements (310-1 to 310-3) for converting the analog input signal into a digital signal, wherein each converter element is coupled to the first input and to a respective one of the plurality of second inputs; a switch for mapping the plurality of second inputs to the plurality of converter elements; and logic configured to cause the switch to map the plurality of second inputs on a plurality of successive input cycles to different converter elements characterized in that the mapping is according to a delta-two-maximum pattern in which on every given input cycle, each converter element is coupled to a respective first reference voltage, and on the immediate input cycle following said given input cycle the converter element is coupled to a respective second reference voltage, in which the respective first and respective second reference voltages of each converter element are no more than two voltage levels apart. a first input for receiving an analog input signal; a plurality of second inputs (340-1 to 340-3) for receiving a plurality of ordered reference voltages, each reference voltage provided at a different voltage level; a plurality of converter elements (310-1 to 310-3) for converting the analog input signal into a digital signal, wherein each converter element is coupled to the first input and to a respective one of the plurality of second inputs; a switch for mapping the plurality of second inputs to the plurality of converter elements; and logic configured to cause the switch to map the plurality of second inputs on a plurality of successive input cycles to different converter elements characterized in that the mapping is according to a delta-two-maximum pattern in which on every given input cycle, each converter element is coupled to a respective first reference voltage, and on the immediate input cycle following said given input cycle the converter element is coupled to a respective second reference voltage, in which the respective first and respective second reference voltages of each converter element are no more than two voltage levels apart.
A method for displaying a video stream of a scene captured by a monitoring camera on a display of a client device remote from the monitoring camera, the method comprising: receiving the video stream; receiving information indicating an on/off status for an IR-illuminator illuminating the scene captured by the monitoring camera; setting a display setting of the display differently based on upon the on/off status for the IR-illuminator is on or off; and displaying the video stream on the display using the set display setting. receiving the video stream; receiving information indicating an on/off status for an IR-illuminator illuminating the scene captured by the monitoring camera; setting a display setting of the display differently based on upon the on/off status for the IR-illuminator is on or off; and displaying the video stream on the display using the set display setting.
A terminal comprising: a touchscreen configured to receive a first touch input for selecting a content to be displayed on the touchscreen and to receive a second touch input; a wireless communication unit configured to communicate with an external terminal via a wireless network; and a controller configured to control the content selected by the first touch input to be shared with the external terminal; wherein the controller is further configured to control a trace of the second touch input to be additionally shared with the external terminal based on a predetermined value indicating whether a handwriting input is set to be shared, wherein the controller is further configured to control a trace of a touch input received from the external terminal to be displayed on the touchscreen based on whether an input authorization is granted to the external terminal, characterized in that in case that the external terminal and the touchscreen differ from each other in specifications, the controller is further configured to control a display size of the trace of the touch input received from the external terminal to fit the specifications of the touchscreen appropriately, further the controller is configured to adjust a display size of the handwriting result based on a ratio of resolution or screen size between the external terminal and the touchscreen. a touchscreen configured to receive a first touch input for selecting a content to be displayed on the touchscreen and to receive a second touch input; a wireless communication unit configured to communicate with an external terminal via a wireless network; and a controller configured to control the content selected by the first touch input to be shared with the external terminal; wherein the controller is further configured to control a trace of the second touch input to be additionally shared with the external terminal based on a predetermined value indicating whether a handwriting input is set to be shared, wherein the controller is further configured to control a trace of a touch input received from the external terminal to be displayed on the touchscreen based on whether an input authorization is granted to the external terminal, characterized in that in case that the external terminal and the touchscreen differ from each other in specifications, the controller is further configured to control a display size of the trace of the touch input received from the external terminal to fit the specifications of the touchscreen appropriately, further the controller is configured to adjust a display size of the handwriting result based on a ratio of resolution or screen size between the external terminal and the touchscreen. in case that the external terminal and the touchscreen differ from each other in specifications, the controller is further configured to control a display size of the trace of the touch input received from the external terminal to fit the specifications of the touchscreen appropriately, further the controller is configured to adjust a display size of the handwriting result based on a ratio of resolution or screen size between the external terminal and the touchscreen.
Method for making pressed pieces, wherein in two sequentially rotating moulder tool holders around a horizontal axis of rotation, there is at least one press mould with at least one feeder for charging material, wherein at least one press mould is correspondingly arranged or movable to at least one pre-press die, to at least one main press die, and to at least one ejection die, with the working direction of at least one pre-press die, at least one main press die, and at least one ejection die being parallel to each other, and on the side of the press mould or moulder tool holder facing and/or opposite at least one pre-press die there is a counter-press plate and on the side facing at least one main press die of the respective press mould there is a fixed counter-press plate, at least one press mould is continuous in the working direction, wherein a pre-press channel opens into each press mould, with at least one pre-press die being arranged in at least one pre-press channel or opening into it, - wherein with at least one press mould a centre-positioning die arranged on the side of the respective press mould or moulder tool holder opposite the respective pre-press die is connected, with the working direction of the centre-positioning die being opposite to that of the pre-press die and the centre-positioning die existing on the side of the respective press mould or moulder tool holder opposite the respective pre-press die being part of or a part of the counter-press plate, - the counter-press plate arranged on the side of the respective press mould facing at least one pre-press die is pivotable or movable, and - two moulder tool holders are spaced apart and at least one respective main press die is alternately driven by a common main press cylinder or drive arranged between the moulder tool holders. - wherein with at least one press mould a centre-positioning die arranged on the side of the respective press mould or moulder tool holder opposite the respective pre-press die is connected, with the working direction of the centre-positioning die being opposite to that of the pre-press die and the centre-positioning die existing on the side of the respective press mould or moulder tool holder opposite the respective pre-press die being part of or a part of the counter-press plate, - the counter-press plate arranged on the side of the respective press mould facing at least one pre-press die is pivotable or movable, and - two moulder tool holders are spaced apart and at least one respective main press die is alternately driven by a common main press cylinder or drive arranged between the moulder tool holders.
A hot-dip galvanized steel sheet having a good appearance and good adhesion to a coating, the hot-dip galvanized steel sheet having a composition consisting of, on a mass basis: C: 0.20% to 0.50%, Si: 0.1% to 3.0%, Mn: 0.5% to 3.0%, P: 0.001% to 0.10%, Al: 0.01% to 3.00%, and S: 0.200% or less, optionally at least one of Mo: 0.01% to 1.00%, Cr: 0.01% to 1.00%, Nb: 0.005% to 0.20%, Ti: 0.005% to 0.20%, Cu: 0.01% to 0.50%, Ni: 0.01% to 1.00%, and B: 0.0005% to 0.010%, a remainder being Fe and incidental impurities, wherein the hot-dip galvanized steel sheet includes an internal oxidation layer and a decarburized layer, the internal oxidation layer having a thickness of 4 μm or less on a steel sheet side from an interface between the steel sheet and a galvanized layer, the decarburized layer having a thickness of 16 μm or less on the steel sheet side from the interface between the steel sheet and the galvanized layer, and 50% or more by area of the internal oxidation layer is composed of a Si oxide containing Fe and/or Mn represented by Fe 2X Mn 2-2X SiO Y, wherein X ranges from 0 to 1, and Y is 3 or 4, wherein the thickness of the internal oxidation layer and the decarburized layer and the area percentage of Si oxides containing Fe and/or Mn are measured according to the methods as described in the description.
A blank for forming a package comprising: a panel defining a first end, a second end opposite the first end, and at least two side edges, wherein the panel comprises: at least one film layer; and an adhesive adjacent the film layer, wherein the adhesive is pattern applied within an interior region of the film layer and wherein a perimeter of the film layer is adhesive free adjacent each of the first end, second end, and side edges, characterized in that: the blank further comprises a release liner comprising a substrate layer and a cured silicone layer, wherein the release liner is adhered to the film layer via the adhesive, wherein the substrate layer of the release liner is disposed adjacent the film layer, and wherein a perimeter of the release liner is smaller than the perimeter of the film layer. at least one film layer; and an adhesive adjacent the film layer, wherein the adhesive is pattern applied within an interior region of the film layer and wherein a perimeter of the film layer is adhesive free adjacent each of the first end, second end, and side edges, characterized in that: the blank further comprises a release liner comprising a substrate layer and a cured silicone layer, wherein the release liner is adhered to the film layer via the adhesive, wherein the substrate layer of the release liner is disposed adjacent the film layer, and wherein a perimeter of the release liner is smaller than the perimeter of the film layer. the blank further comprises a release liner comprising a substrate layer and a cured silicone layer, wherein the release liner is adhered to the film layer via the adhesive, wherein the substrate layer of the release liner is disposed adjacent the film layer, and wherein a perimeter of the release liner is smaller than the perimeter of the film layer., wherein the substrate layer of the release liner is disposed adjacent the film layer, and wherein a perimeter of the release liner is smaller than the perimeter of the film layer.
A gas turbine engine flow duct (16, 236, 336) comprising: a flow duct (16, 236, 336) disposed along an engine centerline of the gas turbine engine and defining a stream flow passage (94, 242, 244); and first and second rows (40, 42, 50, 53, 70, 72) of heat exchangers (20, 22, 60, 62, 80, 82, 100, 240, 340) disposed along the engine centerline of the gas turbine engine and integrated in the flow duct (16, 236, 336) in fluid communication with the stream flow passage (94, 242, 244) of the flow duct (16, 236, 336); wherein the first and second rows (40, 42, 50, 52, 70, 72) of heat exchangers (20, 22, 60, 62, 80, 82, 100, 240, 340) have a variable geometry arrangement for adjusting static pressure in the stream flow passage (94, 242, 244) downstream of the heat exchangers (20, 22, 60, 62, 80, 82, 100, 240, 340); and wherein the variable geometry arrangement of heat exchangers (20, 22, 60, 62, 80, 82, 100, 240, 340) includes the heat exchangers (20, 22, 60, 62, 80, 82, 100, 240, 340) and ejectors circumferentially disposed about the engine centerline, in which the ejector comprises an adjustable nozzle component and an adjustable diffuser component disposed along the engine centerline. a flow duct (16, 236, 336) disposed along an engine centerline of the gas turbine engine and defining a stream flow passage (94, 242, 244); and first and second rows (40, 42, 50, 53, 70, 72) of heat exchangers (20, 22, 60, 62, 80, 82, 100, 240, 340) disposed along the engine centerline of the gas turbine engine and integrated in the flow duct (16, 236, 336) in fluid communication with the stream flow passage (94, 242, 244) of the flow duct (16, 236, 336);
A stackable case, which enables cases of different sizes to be transported or stored by being able to be stacked transversely and longitudinally, and basically comprising - at least one body in which equipment can be transported and stored, - at least one lid which enables stacking one stackable case on top of another by means of the geometric figures provided thereon, - at least two handles which enable to carry the stackable cases and which do not require piercing the stackable case during mounting thereof, - at least two recesses which are located on the bottom of the body and which prevent cases stacked on a lid from moving forward-backward and right-left since they engage with the protrusions provided on the lid, and wherein at least two bands are located on the lid, - and at least two protrusions are located on the bands, which enable stacking, characterized by - at least two combined recesses, which are located on the bottom of the body, the body that includes on the bottom thereof recesses whose depths are greater than the depths of the protrusions provided on the lid, - at least one gap which is formed, when the body is stacked on the lid so that the recesses and the protrusions are engaged, due to their depth differences, which gap enables the material that will be transported to be mounted. - at least one body in which equipment can be transported and stored, - at least one lid which enables stacking one stackable case on top of another by means of the geometric figures provided thereon, - at least two handles which enable to carry the stackable cases and which do not require piercing the stackable case during mounting thereof, - at least two recesses which are located on the bottom of the body and which prevent cases stacked on a lid from moving forward-backward and right-left since they engage with the protrusions provided on the lid, and wherein at least two bands are located on the lid, - and at least two protrusions are located on the bands, which enable stacking, - at least two combined recesses, which are located on the bottom of the body, the body that includes on the bottom thereof recesses whose depths are greater than the depths of the protrusions provided on the lid, - at least one gap which is formed, when the body is stacked on the lid so that the recesses and the protrusions are engaged, due to their depth differences, which gap enables the material that will be transported to be mounted.
An electrovalve system adapted for a hydraulic circuit with a jack for lifting and lowering a load, of the screw cartridge type comprising an electric solenoid base and a hydraulic part comprising a tubular valve body provided with inlet and outlet orifices for the hydraulic fluid and an internal control valve, a valve steering gate for closing and opening the communication channel, axially movable in the valve body, and a member for steering the valve, under the effect of a solenoid, that is movable between a position closing off said channel and a position opening it, the valve steering gate and the steering member being configured and incorporated into the valve body so as to constitute a variable section with tight closing ensuring a gradual variation, with the excitation current of the solenoid, of the flow rate of the hydraulic fluid flowing between the inlet and outlet orifices, characterized in that it comprises a compensating drawer with a gate that is integrated so as to constitute a pressure balance ensuring that the flow rate is constant independently of the fluid pressure at the inlet of the valve.
Printhead, particularly suitable for viscous or particle-filled fluids, with multiple channels, a channel being characterized by - a micro-electro-pneumatic circuit containing between a first and second pressure level a series circuit out of a first microvalve and either a pneumatic throttle or a second microvalve, for generating a control pressure p c at a common pneumatic node between the first microvalve and either one of the throttle and the second microvalve, - at least one drop-on-demand fluid ejector with a pneumatic actuator controlled by the control pressure p c, the fluid ejector controlling a fluid discharge through at least one fluid outlet. - a micro-electro-pneumatic circuit containing between a first and second pressure level a series circuit out of a first microvalve and either a pneumatic throttle or a second microvalve, for generating a control pressure p c at a common pneumatic node between the first microvalve and either one of the throttle and the second microvalve, - at least one drop-on-demand fluid ejector with a pneumatic actuator controlled by the control pressure p c, the fluid ejector controlling a fluid discharge through at least one fluid outlet.
A semiconductor packaging structure, comprising: a semiconductor chip having an active surface and an opposing inactive surface; a plurality of electrode pads disposed on the active surface; a plurality of metal bumps disposed on the electrode pads; a packaging layer encapsulating the semiconductor chip with the active surface of the semiconductor chip exposed therefrom; a dielectric layer formed on the active surface and a surface of the packaging layer at the same side with the active surface and having a plurality of wiring pattern opening areas for the metal bumps to be exposed therefrom; a wiring layer formed in the wiring pattern opening areas and electrically connected to the metal bumps, wherein the wiring layer extends to the dielectric layer on the surface of the packaging layer formed at the same side with the active surface; an insulating protective formed on the dielectric layer and the wiring layer, and having a plurality of openings for a portion of the wiring layer to be exposed therefrom; a metallic foil formed on the surface of the packaging layer at the same side with the inactive surface; and a plurality of metallic protrusions (31, 51) formed on the metallic foil and penetrating the packaging layer to be in contact with the inactive surface of the semiconductor chip, so as to dissipate heat generated by the semiconductor chip to an ambient environment, wherein the metallic protrusions are printed bumps or punched bumps, and wherein for the punched bumps, dimples are formed on an exposed surface of the metallic foil and conform with the metallic protrusions. a semiconductor chip having an active surface and an opposing inactive surface; a plurality of electrode pads disposed on the active surface; a plurality of metal bumps disposed on the electrode pads; a packaging layer encapsulating the semiconductor chip with the active surface of the semiconductor chip exposed therefrom; a dielectric layer formed on the active surface and a surface of the packaging layer at the same side with the active surface and having a plurality of wiring pattern opening areas for the metal bumps to be exposed therefrom; a wiring layer formed in the wiring pattern opening areas and electrically connected to the metal bumps, wherein the wiring layer extends to the dielectric layer on the surface of the packaging layer formed at the same side with the active surface; an insulating protective formed on the dielectric layer and the wiring layer, and having a plurality of openings for a portion of the wiring layer to be exposed therefrom; a metallic foil formed on the surface of the packaging layer at the same side with the inactive surface; and a plurality of metallic protrusions (31, 51) formed on the metallic foil and penetrating the packaging layer to be in contact with the inactive surface of the semiconductor chip, so as to dissipate heat generated by the semiconductor chip to an ambient environment, wherein the metallic protrusions are printed bumps or punched bumps, and wherein for the punched bumps, dimples are formed on an exposed surface of the metallic foil and conform with the metallic protrusions.
A process comprising: reacting 2-nitro-2-methyl-1-propanol with hydrogen over a catalyst in a reactor at a reactor pressure between 2.07 x 10 6 Pa and 6.98 x 10 6 Pa to produce a reaction product; filtering the reaction product and the catalyst through a filtration apparatus, such that the catalyst accumulates in the filtration apparatus; and returning accumulated catalyst from the filtration apparatus to the reactor using at least one backwards pulse from a backpulse system, wherein the backpulse system comprises a first vessel attached to the outlet of the filtration apparatus, a second vessel, and wherein a backpulse gas from the second vessel increases the pressure in the first vessel, such that the pressure in the first vessel is greater than the reactor pressure. reacting 2-nitro-2-methyl-1-propanol with hydrogen over a catalyst in a reactor at a reactor pressure between 2.07 x 10 6 Pa and 6.98 x 10 6 Pa to produce a reaction product; filtering the reaction product and the catalyst through a filtration apparatus, such that the catalyst accumulates in the filtration apparatus; and returning accumulated catalyst from the filtration apparatus to the reactor using at least one backwards pulse from a backpulse system, wherein the backpulse system comprises a first vessel attached to the outlet of the filtration apparatus, a second vessel, and wherein a backpulse gas from the second vessel increases the pressure in the first vessel, such that the pressure in the first vessel is greater than the reactor pressure.