mhurhangee/ep-ind-claims huggingface dataset:
A method for the control of a double-acting turning ram during execution of the process of turning a turnover plough, in which, in a first phase, the turnover plough is rotated by retraction of the piston rod of the turning ram, and, upon reaching a dead point of the movement, is rotated further in a second phase after switching over the direction of movement of the piston rod, wherein the switchover of the movement of direction is undertaken by at least one directional changeover valve arranged in a supply line from a high pressure port connection and a return line to a return port connection, with a control piston that can be displaced between an idle position and a switchover position, and the displacement of the control piston from the idle position into the switchover position is triggered upon reaching the dead point of the movement of the piston rod by an increase in the pressure in the supply line to the turning ram and a reduction of the pressure in the return line from the turning ram, wherein a first active surface is designed on the control piston, or on an actuation element acting on the latter, and, in a contrary direction to the first active surface, a second active surface is designed on the control piston, or on an actuation element acting on the latter, and the pressure in the return line between the changeover valve and the return port connection is applied to the second active surface in the direction of the idle position, characterised in that, in all operating states the pressure in the supply line between the high pressure port connection and the changeover valve is applied to the first active surface in the direction of the switchover position.
Composite article (1, 2) comprising a body (10, 20) and a solid foam, wherein the body (10, 20) has been produced by means of an additive sintering manufacturing process and is at least positively joined to the foam, wherein the material of the body (10, 20) is different from that of the foam, the body (10, 20) is at least partially formed from a thermoplastic polyurethane elastomer having a density of ≥ 1 kg/l and a Shore hardness (DIN ISO 7619-1) of ≥ 50A and ≤ 98A, the foam is at least partially formed from a polyurethane foam, the body (10, 20) comprises a spatial network of node points joined to one another by struts and a space present between the struts, the space present between the struts is at least partially occupied by the polyurethane foam in solid form, the space between the struts of the body (10, 20) accounts for ≥ 60% to ≤ 90% of the volume of the body, in the body (10, 20) the struts have an average length of ≥ 500 μm to ≤ 50 mm, the struts have an average thickness of ≥ 500 μm to ≤ 2.5 mm and the body has in at least one spatial direction a compressive strength (40% compression, DIN EN ISO 3386-1:2010-09) of ≥ 20 to ≤ 70 kPa, in the body (10, 20) the node points are distributed in a periodically repeating manner in at least a portion of the volume of the body (10, 20), in the body the spatial density of the node points in a first region of the body is different from the spatial density of the node points in a second region of the body and the average spatial density of the node points in the body (10, 20) is ≥ 5000 node points/m 3 to ≤ 100 000 node points/m 3. the body (10, 20) has been produced by means of an additive sintering manufacturing process and is at least positively joined to the foam, wherein the material of the body (10, 20) is different from that of the foam, the body (10, 20) is at least partially formed from a thermoplastic polyurethane elastomer having a density of ≥ 1 kg/l and a Shore hardness (DIN ISO 7619-1) of ≥ 50A and ≤ 98A, the foam is at least partially formed from a polyurethane foam, the body (10, 20) comprises a spatial network of node points joined to one another by struts and a space present between the struts, the space present between the struts is at least partially occupied by the polyurethane foam in solid form, the space between the struts of the body (10, 20) accounts for ≥ 60% to ≤ 90% of the volume of the body, in the body (10, 20) the struts have an average length of ≥ 500 μm to ≤ 50 mm, the struts have an average thickness of ≥ 500 μm to ≤ 2.5 mm and the body has in at least one spatial direction a compressive strength (40% compression, DIN EN ISO 3386-1:2010-09) of ≥ 20 to ≤ 70 kPa, in the body (10, 20) the node points are distributed in a periodically repeating manner in at least a portion of the volume of the body (10, 20), in the body the spatial density of the node points in a first region of the body is different from the spatial density of the node points in a second region of the body and the average spatial density of the node points in the body (10, 20) is ≥ 5000 node points/m 3 to ≤ 100 000 node points/m 3.
A method of controlling at least two light sources, the method comprising: - obtaining an image captured with a camera, wherein the image comprises at the least the at least two light sources and at least two objects, - analyzing the image to detect the at least two light sources and the at least two objects in the image, - identifying the at least two light sources, - determining positions of the at least two objects relative to the at least two light sources in the image, - obtaining color information of colors of the at least two objects, - determining a first color for a first light source of the at least two light sources and a second color for a second light source of the at least two light sources based on the color information and based on the determined relative positions, and - controlling the first light source according to the first color and the second light source according to the second color, wherein the image comprises a third light source, and wherein the method further comprises: - determining a third color for the third light source based on the first color and/or the second color, and - controlling the third light source according to the third color. - obtaining an image captured with a camera, wherein the image comprises at the least the at least two light sources and at least two objects, - analyzing the image to detect the at least two light sources and the at least two objects in the image, - identifying the at least two light sources, - determining positions of the at least two objects relative to the at least two light sources in the image, - obtaining color information of colors of the at least two objects, - determining a first color for a first light source of the at least two light sources and a second color for a second light source of the at least two light sources based on the color information and based on the determined relative positions, and - controlling the first light source according to the first color and the second light source according to the second color, - determining a third color for the third light source based on the first color and/or the second color, and - controlling the third light source according to the third color.
System for transmitting a warning message via a radio network having at least one transmitter and at least one receiver, the transmitter comprising an antenna for transmitting the warning message over the radio network, and the warning message transmitted by the transmitter includes parameters of a warning area defined as an individual warning zone, the receiver comprising an antenna for receiving the warning message transmitted via the radio network, a decoder, a processor, a memory in which the location of the receiver is stored, and a warning output unit, wherein the received warning message is captured and read out in the processor by means of a capture algorithm, and an analysis algorithm automatically calculates whether the location stored in the receiver is within the individual warning zone, and if this is the case, a warning signal is generated and output by the warning output unit.
A trigger switch for driving a motor of an electric tool, comprising: a trigger disposed so that when it is pulled into a housing, a contact mechanism is operated so as to drive the motor; and the housing including the contact mechanism therein, wherein an inside of the housing is divided into a first region including a circuit in which a main electric current for driving the motor flows; and a second region including a contact mechanism of a signal circuit which controls a rotation of the motor, wherein the first region is disposed at a position below the second region during normal use, and characterized in that an air vent is disposed on an outer circumferential surface of the first region of the housing on a surface opposite to a surface of the housing where the trigger is pulled-in. a trigger disposed so that when it is pulled into a housing, a contact mechanism is operated so as to drive the motor; and the housing including the contact mechanism therein, a first region including a circuit in which a main electric current for driving the motor flows; and a second region including a contact mechanism of a signal circuit which controls a rotation of the motor,
A mold, comprising: a base made of glass or plastic; an inorganic underlayer provided on a surface of the base, wherein the inorganic underlayer is a silicon oxide layer or a titanium oxide layer; a buffer layer provided on the inorganic underlayer, the buffer layer containing aluminum and either of oxygen or nitrogen; an aluminum layer provided on a surface of the buffer layer; and a porous alumina layer provided on a surface of the aluminum layer, the porous alumina layer having an inverted motheye structure in its surface, the inverted motheye structure having a plurality of recessed portions whose two-dimensional size viewed in a direction normal to the surface is not less than 10 nm and less than 500 nm. a base made of glass or plastic; an inorganic underlayer provided on a surface of the base, wherein the inorganic underlayer is a silicon oxide layer or a titanium oxide layer; a buffer layer provided on the inorganic underlayer, the buffer layer containing aluminum and either of oxygen or nitrogen; an aluminum layer provided on a surface of the buffer layer; and a porous alumina layer provided on a surface of the aluminum layer, the porous alumina layer having an inverted motheye structure in its surface, the inverted motheye structure having a plurality of recessed portions whose two-dimensional size viewed in a direction normal to the surface is not less than 10 nm and less than 500 nm.
A composite of sheet metal parts (11, 12), the composite forming part of an outer shell of a vehicle when assembled onto the vehicle, the composite comprising: a) a first sheet metal part forming a first outer shell region and comprising a first joining region which projects from the first outer shell region via a bent transition towards an inner side of the composite; b) a second sheet metal part forming a second outer shell region and comprising a second joining region which projects from the second outer shell region towards the inner side of the composite, the second joining region facing the first joining region; c) and a welding or soldering seam along which the sheet metal parts (11, 12) are connected; d) wherein the seam runs along or alongside a flange edge which is formed in the first joining region at a distance from the first outer shell region; characterized in that e) the joining regions (11c, 12c) form a narrow gap and abut each other along a strip, wherein the strip runs between the bent transition of the first sheet metal part and the welding or soldering seam; f) and a flange deviates from the first joining region along the flange edge. a) a first sheet metal part forming a first outer shell region and comprising a first joining region which projects from the first outer shell region via a bent transition towards an inner side of the composite; b) a second sheet metal part forming a second outer shell region and comprising a second joining region which projects from the second outer shell region towards the inner side of the composite, the second joining region facing the first joining region; c) and a welding or soldering seam along which the sheet metal parts (11, 12) are connected; d) wherein the seam runs along or alongside a flange edge which is formed in the first joining region at a distance from the first outer shell region; characterized in that e) the joining regions (11c, 12c) form a narrow gap and abut each other along a strip, wherein the strip runs between the bent transition of the first sheet metal part and the welding or soldering seam; f) and a flange deviates from the first joining region along the flange edge.
An environment detection method suitable for a street lamp (100, 400, 500) applied in an environment detection device, comprising: providing latitude and longitude of the position of the street lamp (100, 400, 500); detecting a weather information at the position of the street lamp (100, 400, 500); generating a first network packet according to the weather information and the latitude and longitude; and transmitting the first network packet to a server, characterized in that detecting the weather information comprises: receiving a fluid; and converting the flow of the fluid into a voltage to obtain a rainfall voltage value relevant to the fluid by an hourly rainfall sensor when the fluid flows through the hourly rainfall sensor. providing latitude and longitude of the position of the street lamp (100, 400, 500); detecting a weather information at the position of the street lamp (100, 400, 500); generating a first network packet according to the weather information and the latitude and longitude; and transmitting the first network packet to a server, characterized in that detecting the weather information comprises: receiving a fluid; and converting the flow of the fluid into a voltage to obtain a rainfall voltage value relevant to the fluid by an hourly rainfall sensor when the fluid flows through the hourly rainfall sensor. receiving a fluid; and converting the flow of the fluid into a voltage to obtain a rainfall voltage value relevant to the fluid by an hourly rainfall sensor when the fluid flows through the hourly rainfall sensor.
A composition for use in treating parkinsonism in a subject in need thereof comprising tadalafil and cinacalcet, or salts thereof, or sustained release formulation(s) thereof.
A method for reporting a scheduling request, SR, a user equipment, UE, triggering an SR, the method comprising: the UE determining (602, 603) whether uplink shared channel, UL-SCH, resource allocated for a new transmission is available in a current transmission time interval, TTI; if yes, all SRs waiting for being processed being cancelled; if no, the SR being sent on an uplink control channel when it is determined that uplink control channel resource which can be used for sending an SR has been allocated to the UE, and that there is the uplink control channel resource which can be used for sending an SR in the current TTI and a maximum number of SR sending times is not reached.
An apparatus comprising: a processor; a memory that stores code executable by the processor, the code comprising: code adapted to determine a data bandwidth limitation of a network connection of a first electronic device, wherein the first electronic device is a smart phone being setup as a mobile hotspot; code adapted to receive a request from a second electronic device to access the network connection of the first electronic device; code adapted to provide data corresponding to the data bandwidth limitation to the second electronic device in response to receiving the request from the second electronic device to access the network connection code adapted to determine a metering level for data provided to the second electronic device; code adapted to monitor an amount of data used by the second electronic device; and code adapted to limit the amount of data used by the second electronic device depending on how much data bandwidth has been used prior to the second electronic device using the network connection of the first electronic device according to the determined metering level. a processor; a memory that stores code executable by the processor, the code comprising: code adapted to determine a data bandwidth limitation of a network connection of a first electronic device, wherein the first electronic device is a smart phone being setup as a mobile hotspot; code adapted to receive a request from a second electronic device to access the network connection of the first electronic device; code adapted to provide data corresponding to the data bandwidth limitation to the second electronic device in response to receiving the request from the second electronic device to access the network connection code adapted to determine a metering level for data provided to the second electronic device; code adapted to monitor an amount of data used by the second electronic device; and code adapted to limit the amount of data used by the second electronic device depending on how much data bandwidth has been used prior to the second electronic device using the network connection of the first electronic device according to the determined metering level. code adapted to determine a data bandwidth limitation of a network connection of a first electronic device, wherein the first electronic device is a smart phone being setup as a mobile hotspot; code adapted to receive a request from a second electronic device to access the network connection of the first electronic device; code adapted to provide data corresponding to the data bandwidth limitation to the second electronic device in response to receiving the request from the second electronic device to access the network connection code adapted to determine a metering level for data provided to the second electronic device; code adapted to monitor an amount of data used by the second electronic device; and code adapted to limit the amount of data used by the second electronic device depending on how much data bandwidth has been used prior to the second electronic device using the network connection of the first electronic device according to the determined metering level.
A method of forming a three-dimensional body, comprising: providing a liquid mixture comprising a curable binder, a dye and dispersed solid fluoropolymeric particles; and forming a three-dimensional body from the liquid mixture by curing the binder to form a cured binder, wherein forming includes translation and growth of the three-dimensional body from an interface of an inhibition zone of the liquid mixture, wherein the inhibition zone is a zone of the liquid mixture comprising an inhibitor which can limit or prevent curing of the mixture by electromagnetic radiation; and wherein forming the 3D-body from the liquid mixture includes selecting an amount of the dye of at least 0.01 wt% and not greater than 1 wt%, based on the total weight of the mixture, to control a size resolution of the formed three-dimensional body. providing a liquid mixture comprising a curable binder, a dye and dispersed solid fluoropolymeric particles; and forming a three-dimensional body from the liquid mixture by curing the binder to form a cured binder, wherein forming includes translation and growth of the three-dimensional body from an interface of an inhibition zone of the liquid mixture, wherein the inhibition zone is a zone of the liquid mixture comprising an inhibitor which can limit or prevent curing of the mixture by electromagnetic radiation; and wherein forming the 3D-body from the liquid mixture includes selecting an amount of the dye of at least 0.01 wt% and not greater than 1 wt%, based on the total weight of the mixture, to control a size resolution of the formed three-dimensional body.
A continuous process for the production of a superabsorbent polymer comprising: (a) providing an acidic liquid aqueous monomer mixture containing dissolved oxygen, whereby the monomers are selected to provide after polymerization a superabsorbent polymer, (b) continuously feeding said aqueous monomer mixture to a reactor, (c) introducing a source of carbonate or hydrogen carbonate into said aqueous monomer mixture prior to entry into the reactor thereby forming a gas phase comprising carbon dioxide and at least a part of said dissolved oxygen, said gas phase being dispersed in the liquid phase, (d) subjecting the gas/liquid mixture to at least partial phase separation immediately prior to or after entry into the reactor and at least partially removing the separated gaseous phase, (e) subjecting the liquid phase in the reactor to free-radical polymerization to obtain the superabsorbent polymer, and (f) continuously removing the superabsorbent polymer from the reactor, whereby the aqueous monomer mixture is transferred to the reactor via a transfer line and the source of carbonate or hydrogen carbonate is injected into the transfer line. (a) providing an acidic liquid aqueous monomer mixture containing dissolved oxygen, whereby the monomers are selected to provide after polymerization a superabsorbent polymer, (b) continuously feeding said aqueous monomer mixture to a reactor, (c) introducing a source of carbonate or hydrogen carbonate into said aqueous monomer mixture prior to entry into the reactor thereby forming a gas phase comprising carbon dioxide and at least a part of said dissolved oxygen, said gas phase being dispersed in the liquid phase, (d) subjecting the gas/liquid mixture to at least partial phase separation immediately prior to or after entry into the reactor and at least partially removing the separated gaseous phase, (e) subjecting the liquid phase in the reactor to free-radical polymerization to obtain the superabsorbent polymer, and (f) continuously removing the superabsorbent polymer from the reactor, whereby the aqueous monomer mixture is transferred to the reactor via a transfer line and the source of carbonate or hydrogen carbonate is injected into the transfer line.