mhurhangee/ep-ind-claims huggingface dataset:
A bottom board mounting profile for mounting an insulating cover and/or an additional functional element such as an insect screen roller blind on a bottom board profile of a top mounted roller shutter mounted on a window or door frame or the like, characterized in that the bottom board mounting profile comprises means suitable for affixing the bottom board mounting profile on a narrow side of the bottom board profile in a hinged manner and for pivoting the same from an affixing position into an installation position mounted on the bottom board profile, and in that the bottom board mounting profile comprises means for supporting the insulating cover and/or the additional functional element, such as the insect screen roller blind.
Modular pneumatic cylinder comprising a plurality of cylinder stages, a cylinder bottom, a cylinder head and an axial longitudinal bore extending between the two, which bore opens in a piston rod in the cylinder bottom and is provided for receiving a fastening means, comprising discshaped cylinder stages which are arranged concentrically around the bore and each comprise a piston which annularly surrounds the bore and a piston disc which extends radially from the piston and can be acted upon by compressed air, the cylinder stages each comprising a cylinder stage wall which forms part of the lateral surface of the pneumatic cylinder and a cylinder stage cover which separates the cylinder stages from one another, and the pistons of the cylinder stages being in operative engagement with the piston rod, such that a pressurization of the pneumatic cylinder leads to a stroke of the piston rod, wherein the cylinder stage walls of the cylinder stages being penetrated by axially extending bores beginning in the cylinder head and opening in the cylinder bottom, via which bores the cylinder stages can be connected to one another by cylinder screws, characterized in that channels or recesses are provided in the cylinder stage walls of the cylinder stages, which channels or recesses are pneumatically connected to the cylinder stages and at least one bore in the cylinder stage walls, so that venting of the pneumatic cylinder can take place via at least one cheese head screw.
A method for carrying out an integrity test on a filter element that is designed as a sterile filter element with a hydrophobic membrane, comprising the steps: - at the input side, adding an aqueous fluid to at least one container in which a filter element to be tested is arranged, - adjusting the pressure of the fluid in the container to a predetermined specific test pressure, wherein compression of the filter element starts, - maintaining the specific test pressure in the container during the controlled replenishment of fluid in the container, - determining a forecast and/or estimated integrity parameter for the filter element depending on the controlled replenishment of fluid in the container before a continuous volumetric flow of fluid occurs that is needed to maintain the specific test pressure in the container, wherein the integrity parameter is ascertained while the filter element is being compressed and before the filter element is compressed, - drawing a conclusion as to whether the forecast and/or estimated integrity parameter will or will not lie below a filter-specific and/or predefined integrity limit value for the filter type of the filter element before the filter element is compressed; wherein the integrity parameter depends on at least one characteristic of a change in the volumetric flow of the fluid that is needed to maintain the specific test pressure in the container. - at the input side, adding an aqueous fluid to at least one container in which a filter element to be tested is arranged, - adjusting the pressure of the fluid in the container to a predetermined specific test pressure, wherein compression of the filter element starts, - maintaining the specific test pressure in the container during the controlled replenishment of fluid in the container, - determining a forecast and/or estimated integrity parameter for the filter element depending on the controlled replenishment of fluid in the container before a continuous volumetric flow of fluid occurs that is needed to maintain the specific test pressure in the container, wherein the integrity parameter is ascertained while the filter element is being compressed and before the filter element is compressed, - drawing a conclusion as to whether the forecast and/or estimated integrity parameter will or will not lie below a filter-specific and/or predefined integrity limit value for the filter type of the filter element before the filter element is compressed;
A method for manufacturing a luggage formed by composite material, comprising the steps of: A) using a vacuum molding method to make a thermoplastic sheet into a shell, said shell comprising an outer surface, an inner surface, a receiving area surrounded by said inner surface, and a corner; B) providing a heating mold, said heating mold comprising an inner cavity mold area and then placing said shell in said inner cavity mold area to correspond said outer surface of said shell to an inner wall surface of said inner cavity mold area; C) providing a thermosetting carbon fiber plastic layer, said thermosetting carbon fiber plastic layer comprising an outer surface and an inner surface, and then arranging the outer surface of said thermosetting carbon fiber plastic layer on the inner surface of said shell; D) providing a reinforcing layer and setting said reinforcing layer on the inner surface of said thermosetting carbon fiber plastic layer in a way that said reinforcing layer is only located at the location corresponding to said corner of said shell; and E) placing an airbag in said receiving area of said shell and inflate said airbag to support the inner surface of said thermosetting carbon fiber plastic layer and said reinforcing layer, and at the same time heating said heating mold to heat said shell, said thermosetting carbon fiber plastic layer and said reinforcing layer in said inner cavity mold area, so that said shell, said thermosetting carbon fiber plastic layer and said reinforcing layer are combined with each other. A) using a vacuum molding method to make a thermoplastic sheet into a shell, said shell comprising an outer surface, an inner surface, a receiving area surrounded by said inner surface, and a corner; B) providing a heating mold, said heating mold comprising an inner cavity mold area and then placing said shell in said inner cavity mold area to correspond said outer surface of said shell to an inner wall surface of said inner cavity mold area; C) providing a thermosetting carbon fiber plastic layer, said thermosetting carbon fiber plastic layer comprising an outer surface and an inner surface, and then arranging the outer surface of said thermosetting carbon fiber plastic layer on the inner surface of said shell; D) providing a reinforcing layer and setting said reinforcing layer on the inner surface of said thermosetting carbon fiber plastic layer in a way that said reinforcing layer is only located at the location corresponding to said corner of said shell; and E) placing an airbag in said receiving area of said shell and inflate said airbag to support the inner surface of said thermosetting carbon fiber plastic layer and said reinforcing layer, and at the same time heating said heating mold to heat said shell, said thermosetting carbon fiber plastic layer and said reinforcing layer in said inner cavity mold area, so that said shell, said thermosetting carbon fiber plastic layer and said reinforcing layer are combined with each other.
A method for operating a motor-actuated working device, wherein a certain working operation requires a rise of an applied force to a certain working force, after the attainment of which the certain working operation no longer requires a higher force and a characteristic change in a device value such as a motor current or a pressure rise in a hydraulic medium utilised for applying the force results, wherein furthermore the working device makes possible a rise of the force to a general working force exceeding the certain working force and an apparatus for monitoring the device value is provided, characterized in that during the certain working operation an evaluation with regard to a detection of the characteristic change is carried out and in that the attainment of the characteristic change is utilised as signal for terminating the certain working operation after the attainment of the certain working force, but before the attainment of the general working force, and in that a single or a multiple attainment of the general working force triggers a notification for a user and/or triggers a switching-off of the working device.
A gas turbine having a stator which comprises an exhaust-gas section, the inner shroud of which is separated from the platforms of the rotor blades of the blade wheel of the last turbine stage on the hot-gas side of the rotor of Gas turbine by an axial gap, the gap connecting the exhaust-gas section to a wheel-side space of the blade wheel, said space, in one operating state of Gas turbine, having a lower pressure than the air pressure of the outside environment of Gas turbine and said space having an air inlet which is connected to the outside environment of Gas turbine via an air duct, characterized in that the air inlet is connected to the air duct via a chamber, the latter having an opening through which the chamber is acted upon by a predetermined gas mass flow.
A turning control apparatus for a hybrid construction machine which comprises an engine, an oil hydraulic pump, an electric energy storage device, an engine assistant motor, a turning motor, a power converter, a battery to be mounted in a vehicle separately from the electric energy storage device, and a hybrid control unit, the turning control apparatus comprising: an SMPS configured to apply operating electric power to the hybrid control unit by being supplied with operating electric power from the battery; a first switch Key1 configured to switch a VKey_On path which allows operating electric power to be supplied from the battery to the SMPS when a key on signal of a driver is inputted; characterised by a second switch Key2 configured to switch a VKey_Out path which allows operating electric power to be supplied from the battery to the SMPS when an operation of the first switch Key1 is stopped, wherein the second switch Key2 is arranged to be switched when it is confirmed that the turning motor is being driven in a state in which an operation of the first switch Key1 is stopped. an SMPS configured to apply operating electric power to the hybrid control unit by being supplied with operating electric power from the battery; a first switch Key1 configured to switch a VKey_On path which allows operating electric power to be supplied from the battery to the SMPS when a key on signal of a driver is inputted; characterised by a second switch Key2 configured to switch a VKey_Out path which allows operating electric power to be supplied from the battery to the SMPS when an operation of the first switch Key1 is stopped, wherein the second switch Key2 is arranged to be switched when it is confirmed that the turning motor is being driven in a state in which an operation of the first switch Key1 is stopped.
A photoelectric conversion element (10A, 10C) comprising: a first compound semiconductor layer made of a first compound semiconductor material having a first conductivity type; a photoelectric conversion layer formed directly on the first compound semiconductor layer; a second compound semiconductor layer covering and being directly on the photoelectric conversion layer and made of a second compound semiconductor material having the first conductivity type; a second conductivity type region formed at least in a part of the second compound semiconductor layer, having a second conductivity type different from the first conductivity type, and reaching the photoelectric conversion layer; an element isolation layer surrounding a lateral surface of the photoelectric conversion layer and contacting the first compound semiconductor layer; a first electrode formed on the second conductivity type region; and a second electrode electrically connected to the first compound semiconductor layer, wherein the second electrode is formed on a same side of the photoelectric conversion element (10A, 10C) as the first electrode, wherein the first compound semiconductor layer, the second compound semiconductor layer, and the photoelectric conversion layer are made of a group III-V compound semiconductor material, characterized in that the first compound semiconductor layer, the second compound semiconductor layer, and the element isolation layer are made of a same material, and the element isolation layer is of the first conductivity type and is made of a group III-V compound semiconductor material. a first compound semiconductor layer made of a first compound semiconductor material having a first conductivity type; a photoelectric conversion layer formed directly on the first compound semiconductor layer; a second compound semiconductor layer covering and being directly on the photoelectric conversion layer and made of a second compound semiconductor material having the first conductivity type; a second conductivity type region formed at least in a part of the second compound semiconductor layer, having a second conductivity type different from the first conductivity type, and reaching the photoelectric conversion layer; an element isolation layer surrounding a lateral surface of the photoelectric conversion layer and contacting the first compound semiconductor layer; a first electrode formed on the second conductivity type region; and a second electrode electrically connected to the first compound semiconductor layer, wherein the second electrode is formed on a same side of the photoelectric conversion element (10A, 10C) as the first electrode, wherein the first compound semiconductor layer, the second compound semiconductor layer, and the photoelectric conversion layer are made of a group III-V compound semiconductor material, characterized in that the first compound semiconductor layer, the second compound semiconductor layer, and the element isolation layer are made of a same material, and the element isolation layer is of the first conductivity type and is made of a group III-V compound semiconductor material.
A dialysis system comprising - a water treatment unit of the osmosis type whose outlet has connected thereto a water supply line that opens into at least one line section provided with a plurality of branch connections to which a plurality of dialyzers are fluidly coupled in a selective manner; - a drain line through which the used dialysis fluid can be discharged from the fluid-coupled dialyzers, and - a first heat exchanger external to the dialyzer the one side (WT1/1) of which is connected to the water supply line between the water treatment unit and the line section including the branch connections and the other side (WT1/2) of which is connected to the drain line. - a water treatment unit of the osmosis type whose outlet has connected thereto a water supply line that opens into at least one line section provided with a plurality of branch connections to which a plurality of dialyzers are fluidly coupled in a selective manner; - a drain line through which the used dialysis fluid can be discharged from the fluid-coupled dialyzers, and - a first heat exchanger external to the dialyzer the one side (WT1/1) of which is connected to the water supply line between the water treatment unit and the line section including the branch connections and the other side (WT1/2) of which is connected to the drain line.
A developer composition for a printing plate containing (a) alkali metal salt of saturated fatty acid having carbon number of 12 to 18 and (b) alkali metal salt of unsaturated fatty acid having carbon number of 12 to 18 in a weight ratio of from 20:80 to 80:20 in terms of (a): (b).
A method of troubleshooting a lighting network having a mesh topology, the lighting network comprising a plurality of lighting devices (200, 300, 400A-H) each having at least one connection to a source device, the connection being either direct or indirect via one or more others of the lighting devices (200, 300) forming the indirect connection, each of the lighting devices (200, 300, 400A-H) comprising a respective light source, the method comprising steps of: identifying, for a target one of the lighting devices (200, 300, 400A-H), at least one of said connections between the source device and the target lighting device; determining a characteristic of the identified connection from the source device to the target device, wherein the characteristic comprises a signal strength of the identified one of said connections and/or a latency of the identified one of said connections; and characterised by controlling at least one of the light sources to render a visualization of the determined characteristic of the identified connection between the source device and the target lighting device in the lighting network. identifying, for a target one of the lighting devices (200, 300, 400A-H), at least one of said connections between the source device and the target lighting device; determining a characteristic of the identified connection from the source device to the target device, wherein the characteristic comprises a signal strength of the identified one of said connections and/or a latency of the identified one of said connections; and characterised by controlling at least one of the light sources to render a visualization of the determined characteristic of the identified connection between the source device and the target lighting device in the lighting network.
A turbine or compressor stage for a turbomachine, the stage comprising at least one blade wheel surrounded by a sectorized ring carried by a casing and including a circumferential rim that is clamped radially against an annular rail of the casing by means of resilient clamps (140, 240) that are substantially of C-shaped section and that are engaged axially on the casing rail and on the ring rim, characterized in that each ring sector is held against the casing rail by at least one clamp that is engaged solely on a circumferential end portion of the rim of the ring sector and on a corresponding portion of the casing rail.
Method for operating a seat ventilation device which comprises at least one blower and at least one ventilation opening which is situated in a seat surface and has an air-ventilation connection to the blower, wherein the blower is controlled in order to set a setpoint rotational speed, and wherein the setpoint rotational speed is adapted as a function of a present state value (i) of the blower, which depends on a volumetric flow conveyed by the blower, characterized in that the adapted rotational speed is selected from a characteristic map as a function of the present state value (i), wherein the characteristic map is/has been compiled as a function of a predefinable acoustic limiting value.
A mobile station (116; 202-208) for use in a wireless network, wherein the mobile station is configured to transmit feedback values on a physical uplink control channel, PUCCH to a base station (102, 103; 220) of the wireless network, wherein the mobile station (116; 202-208) is configured to transmit to the base station (102, 103; 220) a wideband first precoder matrix index, PMI, in a first subframe of the PUCCH and a subband second PMI associated with a particular subband and a subband channel quality indicator, CQI, value associated with the particular subband together in a second subframe of the PUCCH, wherein the wideband first PMI and the subband second PMI indicate a precoding matrix in a PUCCH codebook, and wherein the PUCCH codebook is a subset-restriced codebook based on a physical uplink shared channel, PUSCH, codebook which is associated with PMI values transmitted on PUSCH.
A chimeric DNA polymerase comprising: a first sequence at least 90% identical to amino acid residues 156 to 301 of SEQ ID NO: 11; a second sequence at least 90% identical to amino acid residues 394 to 563 of SEQ ID NO: 9; a third sequence at least 90% identical to amino acid residues 26 to 105 of SEQ ID NO: 11; and a fourth sequence at least 90% identical to amino acid residues 612 to 749 of SEQ ID NO: 11, wherein the chimeric DNA polymerase is characterized by (a) an error rate less than 4.45 x 10 6 mutations/nt/doubling, (b) a processivity higher than 20 nucleotides, (c) an elongation rate of higher than 25 nt/s, (d) an ability to maintain enzymatic activity at a salt concentration higher than 30 mM, (e) an ability to maintain enzymatic activity after more than 30 minutes incubation at 98°C, and (f) an ability to maintain enzymatic activity at a tetra-methyl ammonium chloride (TMAC) concentration higher than 10 mM. a first sequence at least 90% identical to amino acid residues 156 to 301 of SEQ ID NO: 11; a second sequence at least 90% identical to amino acid residues 394 to 563 of SEQ ID NO: 9; a third sequence at least 90% identical to amino acid residues 26 to 105 of SEQ ID NO: 11; and a fourth sequence at least 90% identical to amino acid residues 612 to 749 of SEQ ID NO: 11, (a) an error rate less than 4.45 x 10 6 mutations/nt/doubling, (b) a processivity higher than 20 nucleotides, (c) an elongation rate of higher than 25 nt/s, (d) an ability to maintain enzymatic activity at a salt concentration higher than 30 mM, (e) an ability to maintain enzymatic activity after more than 30 minutes incubation at 98°C, and (f) an ability to maintain enzymatic activity at a tetra-methyl ammonium chloride (TMAC) concentration higher than 10 mM.
A method for managing the maximum operating voltage of an accumulator U max (t) over time capable of functioning for an application profile, defined by a series of charging and/or discharging operations of the accumulator, said accumulator being predetermined to function between an initial maximum operating voltage U max_user corresponding to a maximum charging voltage and an initial minimum operating voltage U min_user corresponding to a maximum final discharge voltage, depending on the application and said accumulator being coupled to an accumulator management system in which the manufacturer has defined a maximum working voltage U max_BMS for said accumulator, the managing method comprising the following steps allowing for an evolution over time of said maximum operating voltage U max (t): - the determination of an application profile; - the monitoring of the voltage of the accumulator U(t) during charging and discharging according to said determined application profile, and characterised in that the method further comprises the following steps if, during said voltage monitoring, following a discharge operation, the voltage U(t) becomes lower than the maximum final discharge voltage U min_user, ∘ triggering of a slow charge operation, defined by a charge operation without impact of the internal resistance of the accumulator, on the voltage, so as to again reach the voltage U min_user, ∘ then, triggering of a full charge operation, defined by a rated current charge, leading to a new maximum operating voltage U max (t) greater than the initial voltage U max_user. - the determination of an application profile; - the monitoring of the voltage of the accumulator U(t) during charging and discharging according to said determined application profile, ∘ triggering of a slow charge operation, defined by a charge operation without impact of the internal resistance of the accumulator, on the voltage, so as to again reach the voltage U min_user, ∘ then, triggering of a full charge operation, defined by a rated current charge, leading to a new maximum operating voltage U max (t) greater than the initial voltage U max_user.