mhurhangee/ep-ind-claims huggingface dataset:
Vehicle composite pane with a sensor region at least comprising an outer pane with an outer side and an inner side, an inner pane with an inner side and an outer side, wherein the inner side of the outer pane and the inner side of the inner pane are joined to one another via a thermoplastic intermediate layer, a roof edge and an engine edge, wherein at least one insert that lies outside the sensor region and causes a local change in thickness of the thermoplastic intermediate layer within the sensor region is attached between the inner side of the outer pane and the inner side of the inner pane such that the thickness of the thermoplastic intermediate layer is variable with a wedge angle (α) in the vertical course between the roof edge and the engine edge at least in sections within the sensor region.
A method for tempering glass sheets, said method comprising heating the glass sheets to a tempering temperature in a furnace in which the glass sheets are moved back and forth while supported on rolls, and feeding the heated glass sheets into a quench unit (3, 4) which is divided into two quenching zones with separately controlled blasting pressures, the glass sheets being driven without stopping through the first quenching zone into the second quenching zone characterized in that in the first quenching zone cooling air is blasted onto glass sheet surfaces with slit nozzles (12, 13), that in the second quenching zone cooling air is blasted onto glass sheet surfaces with hole-type nozzles and that the glass sheet is moved back and forth upon the rolls in the second quenching zone
A lighting circuit (100, 200, 300) for lighting a semiconductor light source, the circuit comprising: a DC/DC converter configured to receive a DC first voltage (V bat) and a DC second voltage different from the first voltage and generate a DC third voltage (V boost) such that a difference between the third and second voltages is more than a difference between the first and second voltages; a first connector comprising a first terminal (Boost), wherein the third voltage (V boost) is applied to the first terminal, wherein the first connector is configured to connect the first terminal and one end of the semiconductor light source; and a control circuit (102, 202, 302) configured to control the DC/DC converter such that a value of current flowing between the DC/DC converter and the first terminal is set to a certain value, wherein the control circuit is configured to only select the first voltage (V bat) as a voltage applied to the other end of the semiconductor light source, when a light emission voltage (V F) for emitting the semiconductor light source is less than an absolute value of the difference between the first and second voltages, and wherein the control circuit is configured to select either the first voltage or the second voltage as the voltage applied. to the other end of the semiconductor light source, when the light emission voltage (V F) is not less than the said absolute value. a DC/DC converter configured to receive a DC first voltage (V bat) and a DC second voltage different from the first voltage and generate a DC third voltage (V boost) such that a difference between the third and second voltages is more than a difference between the first and second voltages; a first connector comprising a first terminal (Boost), wherein the third voltage (V boost) is applied to the first terminal, wherein the first connector is configured to connect the first terminal and one end of the semiconductor light source; and a control circuit (102, 202, 302) configured to control the DC/DC converter such that a value of current flowing between the DC/DC converter and the first terminal is set to a certain value, wherein the control circuit is configured to only select the first voltage (V bat) as a voltage applied to the other end of the semiconductor light source, when a light emission voltage (V F) for emitting the semiconductor light source is less than an absolute value of the difference between the first and second voltages, and wherein the control circuit is configured to select either the first voltage or the second voltage as the voltage applied. to the other end of the semiconductor light source, when the light emission voltage (V F) is not less than the said absolute value.
Roller shutter box adapted to be integrated with an upper frame of a door or window such as to extend beyond the outer side of the door or window when the door or window is mounted in a wall structure that defines an inner space and an outer space; the roller shutter box is a one-piece extruded structure; it is equipped with braces between its external border walls (1, 16, 23) and an internal border wall; the braces, the external border walls (1, 16, 23) and a first side of the internal border wall together define multiple chambers, a second side of the internal border wall opposite its first side defines an internal space, wherein a roller shutter roll is arranged; the roller shutter box is also adapted to be fastened to the wall structure; wherein support elements are arranged in the chamber(s), or in channel(s) created in the roller shutter box for the support elements; the roller shutter box is attachable to the door or window and to the wall structure using fixing elements such as through-bolts, through the support elements; characterised in that the roller shutter box is further equipped with an assembly cover for providing access to the internal space, and the assembly cover is provided in the part of the roller shutter box that extends beyond the outer side of the door or window in the mounted state such as to be facing in the direction of the outer space.
An apparatus for the manufacture of nanoparticles comprising: a. at least one solvent preparation module for delivery of nanoparticle precursors within the apparatus and comprising at least three solvent organiser units and at least three degasser units, wherein the at least one solvent preparation module is connected in series with b. at least one particle synthesis module for the manufacture of the nanoparticles and having at least three independently heatable chambers (55, 60, 65) including a preheating chamber comprising two preheating chambers for individually and substantially simultaneously preheating at least two solutions of nanoparticle precursors, a nucleation chamber for mixing the at least two preheated solutions of nanoparticle precursors and nucleating the at least two nanoparticle precursors and a growth chamber for the growth of the nanoparticles from the nucleated at least two nanoparticle precursors. a. at least one solvent preparation module for delivery of nanoparticle precursors within the apparatus and comprising at least three solvent organiser units and at least three degasser units, wherein the at least one solvent preparation module is connected in series with b. at least one particle synthesis module for the manufacture of the nanoparticles and having at least three independently heatable chambers (55, 60, 65) including a preheating chamber comprising two preheating chambers for individually and substantially simultaneously preheating at least two solutions of nanoparticle precursors, a nucleation chamber for mixing the at least two preheated solutions of nanoparticle precursors and nucleating the at least two nanoparticle precursors and a growth chamber for the growth of the nanoparticles from the nucleated at least two nanoparticle precursors.
A fuel nozzle receiving assembly comprising: a base having a nozzle channel formed therethrough; an outer wall connected to the base, wherein an internal chamber is defined between an internal surface of the base and an internal surface of the outer wall; a seal member secured to the base and extending around at least a portion of the nozzle channel, wherein the seal member is configured to sealingly engage a fuel nozzle that passes into and through the nozzle channel; and a protective support positioned proximate to the nozzle channel, wherein the protective support is configured to support the fuel nozzle as it passes into and through the nozzle channel and to protect the seal member from damage, wherein the seal member is disposed on an outer surface of the base, and the protective support is disposed on the internal surface of the base. a base having a nozzle channel formed therethrough; an outer wall connected to the base, wherein an internal chamber is defined between an internal surface of the base and an internal surface of the outer wall; a seal member secured to the base and extending around at least a portion of the nozzle channel, wherein the seal member is configured to sealingly engage a fuel nozzle that passes into and through the nozzle channel; and a protective support positioned proximate to the nozzle channel, wherein the protective support is configured to support the fuel nozzle as it passes into and through the nozzle channel and to protect the seal member from damage, wherein the seal member is disposed on an outer surface of the base, and the protective support is disposed on the internal surface of the base.
A counting device for counting the number of counting objects in liquid in a flexible container, wherein the counting device is provided with a mounting table for mounting the container thereon and a pressing table being arranged so as to oppose to the container- arranged side of the mounting table; the mounting table and the pressing table are capable of moving relatively in a direction of sandwiching the container, and a light-passing hole (21, 31, 354) facing the surface of the container is provided in at least one of the mounting table and the pressing table; characterized in that the pressing table is provided with one or plural thickness-setting members (32. 32a) sandwiching the container between the pressing table and the mounting table in the periphery of the light-passing hole (21, 31, 354) and on the side opposite to the container in a protruding manner; and in that the one or plural thickness-setting members (32, 32a) have the amount of protrusion that a part of the upper film of the container that is positioned below the central part of the pressing table is brought into contact with the lower surface of the pressing table when the one or plural thickness-setting members (32, 32a) press down the container so as to allow a part of the upper film that has been pushed down to abut the lower film of the container.
A system for roasting particulate material, such as coffee or cacao beans, grains, malt, said system comprising: a concentrated solar collector configured for heating a fluid (Fl); a roasting device of particulate material comprising a treatment compartment configured for receiving the particulate material, at least one generation unit (321, 322, etc.) configured for generating at least one gas and/or steam flow with a controlled temperature, through the treatment compartment; said at least one generation unit being configured for exchanging heat between said at least one gas and/or steam flow and a second flow; a circulation system configured for generating the second flow, and optionally configured for directly using the heated fluid (Fl); characterized in that the system further comprises a heat storage device configured for storing heat of the heated fluid (Fl); and in that the circulation system is configured for generating the second flow by using heat stored in the heat storage device. a concentrated solar collector configured for heating a fluid (Fl); a roasting device of particulate material comprising a treatment compartment configured for receiving the particulate material, at least one generation unit (321, 322, etc.) configured for generating at least one gas and/or steam flow with a controlled temperature, through the treatment compartment; said at least one generation unit being configured for exchanging heat between said at least one gas and/or steam flow and a second flow; a circulation system configured for generating the second flow, and optionally configured for directly using the heated fluid (Fl); characterized in that the system further comprises a heat storage device configured for storing heat of the heated fluid (Fl); and in that the circulation system is configured for generating the second flow by using heat stored in the heat storage device.
Process for the production of a part provided with an external element comprising the following steps: - provide (Md_Sub) an electrically conductive substrate having an upper surface and a pattern forming a recess in said upper surface - deposit (Md_Cis) an electrically insulating layer into the pattern so that the insulating layer extends as far as the upper surface, the process being characterized by the following steps: - deposit (Md_Cga) a metal layer onto the upper surface of the substrate by galvanic growth so that at the end of this step the metal layer partly rests on the insulating layer - dissolve (Md_Dis) the insulating layer - cover (Md_Enr) an assembly comprising the substrate and the metal layer with a mass of a base material of the part, wherein the mass forms an imprint of the assembly - separate (Md_Dem) the mass and the metal layer from the substrate, wherein the mass then exhibits an external element with a shape corresponding to the imprint of the pattern. - provide (Md_Sub) an electrically conductive substrate having an upper surface and a pattern forming a recess in said upper surface - deposit (Md_Cis) an electrically insulating layer into the pattern so that the insulating layer extends as far as the upper surface, the process being characterized by the following steps: - deposit (Md_Cga) a metal layer onto the upper surface of the substrate by galvanic growth so that at the end of this step the metal layer partly rests on the insulating layer - dissolve (Md_Dis) the insulating layer - cover (Md_Enr) an assembly comprising the substrate and the metal layer with a mass of a base material of the part, wherein the mass forms an imprint of the assembly - separate (Md_Dem) the mass and the metal layer from the substrate, wherein the mass then exhibits an external element with a shape corresponding to the imprint of the pattern. - deposit (Md_Cga) a metal layer onto the upper surface of the substrate by galvanic growth so that at the end of this step the metal layer partly rests on the insulating layer - dissolve (Md_Dis) the insulating layer - cover (Md_Enr) an assembly comprising the substrate and the metal layer with a mass of a base material of the part, wherein the mass forms an imprint of the assembly - separate (Md_Dem) the mass and the metal layer from the substrate, wherein the mass then exhibits an external element with a shape corresponding to the imprint of the pattern.
A brake control system comprising: a friction brake unit configured to generate a friction braking force; a regenerative brake unit configured to generate a regenerative braking force; a brake control unit configured to calculate a first regenerative target value based on a target braking force, which is a target of the braking force to be provided to a wheel (9FR, 9FL), and configured to control the friction brake unit based on a friction target value, characterised in that the brake control unit is further configured to calculate and output a second regenerative target value by adding the first regenerative target value to an addition value that is set in accordance with the gradient of the target braking force when the first regenerative target value is on the increase, and a regenerative control unit configured to control the regenerative brake unit based on the second regenerative target value, wherein the brake control unit further adjusts the addition value based on vehicle speed, and when a predetermined period of time has elapsed after the addition to the first regenerative target value was initiated, the brake control unit reduces the addition value. a friction brake unit configured to generate a friction braking force; a regenerative brake unit configured to generate a regenerative braking force; a brake control unit configured to calculate a first regenerative target value based on a target braking force, which is a target of the braking force to be provided to a wheel (9FR, 9FL), and configured to control the friction brake unit based on a friction target value, characterised in that the brake control unit is further configured to calculate and output a second regenerative target value by adding the first regenerative target value to an addition value that is set in accordance with the gradient of the target braking force when the first regenerative target value is on the increase, and a regenerative control unit configured to control the regenerative brake unit based on the second regenerative target value, wherein the brake control unit further adjusts the addition value based on vehicle speed, and when a predetermined period of time has elapsed after the addition to the first regenerative target value was initiated, the brake control unit reduces the addition value.
An apparatus for communicating with Long Term Evolution, LTE, cellular networks (2; 30,31), and for registering with an LTE cellular network, wherein: the apparatus comprises a radio for communicating with LTE cellular networks using a first LTE access technology and for communicating with LTE cellular networks using a second LTE access technology, different from the first LTE access technology; the apparatus is configured to access an identity-data memory (14; 19) storing identity data received by the apparatus; the apparatus comprises an access-technology-identification memory (14; 19) for storing access-technology identification information that identifies with which of the first LTE access technology and the second LTE access technology a Globally Unique Temporary Identifier, GUTI, stored in the identity-data memory is associated; and the apparatus is configured, when registering (34; 41; 141) with an LTE cellular network using a selected LTE access technology of the first and second LTE access technologies, to process access-technology identification information, stored in the access-technology-identification memory, which identifies with which of the first LTE access technology and the second LTE access technology the GUTI stored in the identity-data memory is associated, to determine whether the GUTI stored in the identity-data memory is associated with the selected LTE access technology, and, when the GUTI stored in the identity-data memory is associated with the selected LTE access technology, to send the GUTI to the LTE cellular network when registering with the LTE cellular network. the apparatus comprises a radio for communicating with LTE cellular networks using a first LTE access technology and for communicating with LTE cellular networks using a second LTE access technology, different from the first LTE access technology; the apparatus is configured to access an identity-data memory (14; 19) storing identity data received by the apparatus; the apparatus comprises an access-technology-identification memory (14; 19) for storing access-technology identification information that identifies with which of the first LTE access technology and the second LTE access technology a Globally Unique Temporary Identifier, GUTI, stored in the identity-data memory is associated; and the apparatus is configured, when registering (34; 41; 141) with an LTE cellular network using a selected LTE access technology of the first and second LTE access technologies, to process access-technology identification information, stored in the access-technology-identification memory, which identifies with which of the first LTE access technology and the second LTE access technology the GUTI stored in the identity-data memory is associated, to determine whether the GUTI stored in the identity-data memory is associated with the selected LTE access technology, and, when the GUTI stored in the identity-data memory is associated with the selected LTE access technology, to send the GUTI to the LTE cellular network when registering with the LTE cellular network.
A valve device for an air suspension system in a trailer of a vehicle, said valve device comprising: a supply port for receiving a supply pressure (pV), at least a first bellows port for providing a first bellows pressure, a first lifting/lowering valve manually operable by a hand lever and in fluid connection with the supply port and the first bellows port, wherein the hand lever is operable to selectively connect the first bellows port with the supply port for providing the first bellows pressure, and a locking unit for locking the position of the hand lever, the locking unit comprising a locking valve biased into the locked position and comprising a release chamber, wherein the locking valve is switchable into a release position upon a release pressure (pR) being supplied into the release chamber, characterized by an electromagnetic double valve arrangement fluidly connected to the release chamber and being switchable between a first release position, in which the release chamber is in fluid connection with an exhaust port, and a second supply position, in which the release chamber is in fluid connection with the supply port and the first bellows port. a supply port for receiving a supply pressure (pV), at least a first bellows port for providing a first bellows pressure, a first lifting/lowering valve manually operable by a hand lever and in fluid connection with the supply port and the first bellows port, wherein the hand lever is operable to selectively connect the first bellows port with the supply port for providing the first bellows pressure, and a locking unit for locking the position of the hand lever, the locking unit comprising a locking valve biased into the locked position and comprising a release chamber, wherein the locking valve is switchable into a release position upon a release pressure (pR) being supplied into the release chamber, characterized by an electromagnetic double valve arrangement fluidly connected to the release chamber and being switchable between a first release position, in which the release chamber is in fluid connection with an exhaust port, and a second supply position, in which the release chamber is in fluid connection with the supply port and the first bellows port.
Device (1; 50) for receiving coins (51, 52), which enables the acceptance of individual coins as well as the acceptance of several coins for a further processing of the coins via a coin outlet, wherein the device is formed by a drawer-like, laterally displaceable receptacle (5, 10, 14; 50), characterised in that the drawer-like receptacle (5, 10, 14; 50) has a side with a coin insertion slot and a receiving area (10, 13, 14) for receiving a plurality of coins, wherein the receiving area comprises at least one inclined coil outlet area, which has a rigid section and a moveable section relative to the drawer-like receptacle, wherein the moveable section is designed to rotate around an axis that is parallel in the movement direction of the drawer-like receptacle and is arranged in such a way that the rigid section is directly followed by a lower end of the same, and wherein the rigid section is in total arranged inclined in such a way that a gravity-induced transport of coins inserted into the drawer-like, laterally displaceable receptacle away from the same is possible, and wherein coins inserted onto the receptacle in an opened position initially come to lie on the moveable section that can be moved into a substantially vertical position across the rigid section, and wherein the moveable section is moved into an inclined position in a closed position of the receptacle, so that a sliding of coins into a further channel for sorting and counting respectively further processing is made possible.