mhurhangee/ep-ind-claims huggingface dataset:
A lens holding jig comprising: a first arm, a second arm, and a third arm disposed on both sides of a lens base material to be held; a first side holding portion and a second side holding portion (8, 9) provided at lower ends of said first arm and said second arm, respectively, to hold left and right edges of a cut end surface of the lens base material; and a lower holding portion provided on said third arm to hold a lower edge of the cut end surface of the lens base material, whereby, when applying an application liquid to the lens base material, said first side holding portion, said second side holding portion, and said lower holding portion are immersed in the application liquid together with said first arm, said second arm, and said third arm, wherein said lower holding portion comprises a V-shaped upper surface forming support surfaces that support lower edges of the cut end surface of the lens base material at two points in a direction perpendicular to optical surfaces (1b, 1c) of the lens base material, and characterized by an application liquid release portion running vertically downward from said V-shaped support surfaces, said application liquid release portion having its upper end open to the support surfaces and being open to the obverse and reverse surfaces (15a, 15b) of said lower holding portion. a first arm, a second arm, and a third arm disposed on both sides of a lens base material to be held; a first side holding portion and a second side holding portion (8, 9) provided at lower ends of said first arm and said second arm, respectively, to hold left and right edges of a cut end surface of the lens base material; and a lower holding portion provided on said third arm to hold a lower edge of the cut end surface of the lens base material, whereby, when applying an application liquid to the lens base material, said first side holding portion, said second side holding portion, and said lower holding portion are immersed in the application liquid together with said first arm, said second arm, and said third arm, wherein said lower holding portion comprises a V-shaped upper surface forming support surfaces that support lower edges of the cut end surface of the lens base material at two points in a direction perpendicular to optical surfaces (1b, 1c) of the lens base material, and characterized by an application liquid release portion running vertically downward from said V-shaped support surfaces, said application liquid release portion having its upper end open to the support surfaces and being open to the obverse and reverse surfaces (15a, 15b) of said lower holding portion.
A configurable automatic test infrastructure adapted for characterization adjustment of filters having at least one screw for tuning the filter wherein each screw has a slot, the configurable automatic test infrastructure comprises a tip for rotating the at least one screw on the filter; an image scanner comprising a light curtain; a robot arm having a work field; a linear guideway configured to bring the filter to the work field and away from the work field; wherein the automatic test infrastructure is configured to perform the following steps • carrying the filter by the robot arm onto the linear guideway in the work field; • moving the filter by the linear guide way through the light curtain such that the image scanner scans the at least one screw of the filter; • determining by the image scanner the respective angle for each of the at least one screw; • carrying the filter by the linear guide way to the work field; • approximating by the robot arm the tip to a respective screw of the at least one screw in accordance with the respective angle determined by the image scanner; • mounting by the robot arm the tip in the respective slot; • transmitting rotational motion to the respective screw by means of the tip. the configurable automatic test infrastructure comprises a tip for rotating the at least one screw on the filter; an image scanner comprising a light curtain; a robot arm having a work field; a linear guideway configured to bring the filter to the work field and away from the work field; wherein the automatic test infrastructure is configured to perform the following steps • carrying the filter by the robot arm onto the linear guideway in the work field; • moving the filter by the linear guide way through the light curtain such that the image scanner scans the at least one screw of the filter; • determining by the image scanner the respective angle for each of the at least one screw; • carrying the filter by the linear guide way to the work field; • approximating by the robot arm the tip to a respective screw of the at least one screw in accordance with the respective angle determined by the image scanner; • mounting by the robot arm the tip in the respective slot; • transmitting rotational motion to the respective screw by means of the tip. • carrying the filter by the robot arm onto the linear guideway in the work field; • moving the filter by the linear guide way through the light curtain such that the image scanner scans the at least one screw of the filter; • determining by the image scanner the respective angle for each of the at least one screw; • carrying the filter by the linear guide way to the work field; • approximating by the robot arm the tip to a respective screw of the at least one screw in accordance with the respective angle determined by the image scanner; • mounting by the robot arm the tip in the respective slot; • transmitting rotational motion to the respective screw by means of the tip.
A plasma etching method in which plasmas are generated from processing gases and a silicon substrate is thereby etched to form a tapering etching structure having a wide top opening width and a narrow bottom width in the silicon substrate, said method comprising: a first step in which a processing gas consisting of SF 6 gas and N 2 gas is used as the processing gas and plasma is generated from these gases, and the silicon substrate is etched by the plasma generated from the SF 6 gas while an etch-resistant layer is formed on the silicon substrate by the plasma generated from the N 2 gas, and thereafter, a second step in which a processing gas consisting of SF 6 gas and O 2 gas is used as the processing gas and plasma is generated from these gases, and the silicon substrate is etched by the plasma generated from the SF 6 gas while an etch-resistant layer is formed on the silicon substrate by the plasma generated from the O 2 gas. a first step in which a processing gas consisting of SF 6 gas and N 2 gas is used as the processing gas and plasma is generated from these gases, and the silicon substrate is etched by the plasma generated from the SF 6 gas while an etch-resistant layer is formed on the silicon substrate by the plasma generated from the N 2 gas, and thereafter, a second step in which a processing gas consisting of SF 6 gas and O 2 gas is used as the processing gas and plasma is generated from these gases, and the silicon substrate is etched by the plasma generated from the SF 6 gas while an etch-resistant layer is formed on the silicon substrate by the plasma generated from the O 2 gas.
Method for preparing esters of lactic and lactylatic acid, where the conversion of substrates is 100%, comprising: a) placement in pressure reactor polylactide and alcohol wherein the alcohol is selected from methyl, ethyl, n-propyl, isopropyl, n-butyl, isobutyl, sec-butyl, tert-butyl, n-pentyl, isopentyl, n-hexyl, 2-ethylhexyl, n-octyl, allyl, propargyl, benzyl alcohol or mixture of alcohols with ratio of reagents from 2 to 10 molar equivalents of alcohol for structural unit of polymer ROH/mer; b) optionally, introducing pre-catalyst to reaction mixture in situ wherein the catalyst is prepared in direct one-stage synthesis from organometallic compounds, metal halides, amides, hydrides, carboxylates, acetylacetonates, alcoholates, aryloxanes, metal oxides, metallic dusts, metallic chips, low melt metal alloys and catalytic compositions composed of mixtures of said precursors in the reaction with ROH in solvothermal conditions during the process; and wherein the catalyst is synthetized from organometallic compounds, hydroxides, metal alkoxides, salts of inorganic acids c) carrying out the alcoholysis reaction of polylactide in the presence of alcohol or mixture of alcohols, under autogenous pressure of reaction mixture components within a range from atmospheric pressure to 107 bar, in suitably selected temperature, wherein i. in non-catalyst reaction, the reaction temperature is 220-260°C, ii. while in catalyst reaction, the reaction temperature is 150-220°C, d) separating and purifying final product by filtration, evaporation and distillation. a) placement in pressure reactor polylactide and alcohol wherein the alcohol is selected from methyl, ethyl, n-propyl, isopropyl, n-butyl, isobutyl, sec-butyl, tert-butyl, n-pentyl, isopentyl, n-hexyl, 2-ethylhexyl, n-octyl, allyl, propargyl, benzyl alcohol or mixture of alcohols with ratio of reagents from 2 to 10 molar equivalents of alcohol for structural unit of polymer ROH/mer; b) optionally, introducing pre-catalyst to reaction mixture in situ wherein the catalyst is prepared in direct one-stage synthesis from organometallic compounds, metal halides, amides, hydrides, carboxylates, acetylacetonates, alcoholates, aryloxanes, metal oxides, metallic dusts, metallic chips, low melt metal alloys and catalytic compositions composed of mixtures of said precursors in the reaction with ROH in solvothermal conditions during the process; and wherein the catalyst is synthetized from organometallic compounds, hydroxides, metal alkoxides, salts of inorganic acids c) carrying out the alcoholysis reaction of polylactide in the presence of alcohol or mixture of alcohols, under autogenous pressure of reaction mixture components within a range from atmospheric pressure to 107 bar, in suitably selected temperature, wherein i. in non-catalyst reaction, the reaction temperature is 220-260°C, ii. while in catalyst reaction, the reaction temperature is 150-220°C, i. in non-catalyst reaction, the reaction temperature is 220-260°C, ii. while in catalyst reaction, the reaction temperature is 150-220°C, d) separating and purifying final product by filtration, evaporation and distillation.
Method for adjusting the clamping force (F N) which is exerted by a parking brake and which is applied by an electromotive brake device which comprises an electric brake motor, and by a hydraulic brake device, characterized in that the hydraulic emission pressure (p h,vor) which is present in the hydraulic brake device and is generated by means of a driver activation operation is used for generating a hydraulic clamping force (F N,h), and in the event of the hydraulic clamping force (F N,h) not being sufficient to achieve the target clamping force (F N,Ziel), a clamping force (F N,el) which is generated in the electromotive brake device is additionally generated and clamping force (F N,el) is reduced by a constant absolute value in the event of the hydraulic admission pressure (p h,vor) exceeding a pressure threshold value (p h,140).
A method for controlling accuracy of specimen analysis including a first step of dispersing the cells of the fixed embedded pseudo tissue comprising a pseudo tissue comprising a plurality of cells derived from a cell line and a cell adhesion molecule produced by the cells, wherein the cells are adhered by the cell adhesion molecule in the pseudo tissue, into individual cells to prepare a control sample, and obtaining a measured value representing the number of cells by flow cytometer, a second step of dispersing cells in a fixed embedded tissue specimen into individual cells to prepare a measurement sample, and obtaining a measured value representing the number of cells by flow cytometer, and a step of comparing the measured value of the control sample with a predetermined reference value and determining whether or not the second step has been appropriately performed based on the comparison result. a first step of dispersing the cells of the fixed embedded pseudo tissue comprising a pseudo tissue comprising a plurality of cells derived from a cell line and a cell adhesion molecule produced by the cells, wherein the cells are adhered by the cell adhesion molecule in the pseudo tissue, into individual cells to prepare a control sample, and obtaining a measured value representing the number of cells by flow cytometer, a second step of dispersing cells in a fixed embedded tissue specimen into individual cells to prepare a measurement sample, and obtaining a measured value representing the number of cells by flow cytometer, and a step of comparing the measured value of the control sample with a predetermined reference value and determining whether or not the second step has been appropriately performed based on the comparison result.
A method for wireless communication, comprising: determining an overload indicator for a cell; and determining resources reserved for a low reuse channel, the low reuse channel observes less interference from neighbor cells, and wherein the reserved resources occupy guard subcarriers; and transmitting the overload indicator for the cell on the occupied guard subcarriers of the reserved resources to user equipments, UEs, in neighbor cells; wherein the low reuse channel is a channel with reuse factor greater than one so that only a fraction of cells transmit their low reuse channels on a given resource. determining an overload indicator for a cell; and determining resources reserved for a low reuse channel, the low reuse channel observes less interference from neighbor cells, and wherein the reserved resources occupy guard subcarriers; and transmitting the overload indicator for the cell on the occupied guard subcarriers of the reserved resources to user equipments, UEs, in neighbor cells; wherein the low reuse channel is a channel with reuse factor greater than one so that only a fraction of cells transmit their low reuse channels on a given resource.
A method, comprising: identifying a virtualized network function, VNF, related virtualized resource, VR, performance threshold for one or more VRs supporting a VNF used to implement a virtualized network element in a 3rd Generation Partnership Project, 3GPP, network; determining whether the VNF-related VR performance threshold has been crossed based on received VNF-related VR performance data; in response to a determination that the VNF-related VR performance threshold has been crossed, sending a VNF-related VR performance alarm notification to an element manager (EM, 108), characterised in that the EM sends a notification of the VNF-related VR performance alarm notification to a network manager, NM, in response to receiving the VNF-related VR performance alarm notification performing, by the NM, an alarm correlation procedure for determining whether to restart a VNF instance, wherein the alarm correlation procedure comprises checking for one or more correlations between a virtual resource performance alarm of a virtual resource and one or more other virtual resource performance alarms of other virtual resources; and determining, by the NM, whether the VNF instance is to be restarted based on the alarm correlation procedure. identifying a virtualized network function, VNF, related virtualized resource, VR, performance threshold for one or more VRs supporting a VNF used to implement a virtualized network element in a 3rd Generation Partnership Project, 3GPP, network; determining whether the VNF-related VR performance threshold has been crossed based on received VNF-related VR performance data; in response to a determination that the VNF-related VR performance threshold has been crossed, sending a VNF-related VR performance alarm notification to an element manager (EM, 108), characterised in that the EM sends a notification of the VNF-related VR performance alarm notification to a network manager, NM, in response to receiving the VNF-related VR performance alarm notification performing, by the NM, an alarm correlation procedure for determining whether to restart a VNF instance, wherein the alarm correlation procedure comprises checking for one or more correlations between a virtual resource performance alarm of a virtual resource and one or more other virtual resource performance alarms of other virtual resources; and determining, by the NM, whether the VNF instance is to be restarted based on the alarm correlation procedure.
A method of transmitting and receiving signals in a multi-node system, the method comprising: in a terminal receiving), from a first node (node 1), reference signal configuration information; receiving, from a second node (node 2) comprising a plurality of transmission antennas, a reference signal, wherein the reference signal configuration information includes information about a mapping between the second node (node 2) and the reference signal; measuring a second node interference based on the reference signal, wherein the second node interference is interference due to the second node (node 2); generating interference node information based on the second node interference; and transmitting, to the first node (node 1), the interference node information, wherein the interference node information includes an index of the reference signal and a cell identifier, ID, of the second node (node 2); and wherein the interference node information further includes an index of at least one transmission antenna, which generates the interference, among the plurality of transmission antennas of the second node (node 2). in a terminal receiving), from a first node (node 1), reference signal configuration information; receiving, from a second node (node 2) comprising a plurality of transmission antennas, a reference signal, wherein the reference signal configuration information includes information about a mapping between the second node (node 2) and the reference signal; measuring a second node interference based on the reference signal, wherein the second node interference is interference due to the second node (node 2); generating interference node information based on the second node interference; and transmitting, to the first node (node 1), the interference node information, wherein the interference node information includes an index of the reference signal and a cell identifier, ID, of the second node (node 2); and wherein the interference node information further includes an index of at least one transmission antenna, which generates the interference, among the plurality of transmission antennas of the second node (node 2).
An aerosol dispenser device comprising a reservoir containing substance to be dispensed, an aerosol valve, a ring for disposing around a valve body of said aerosol dispenser valve that is mounted by means of a fastener element, such as a crimpable capsule, on said reservoir containing substance to be dispensed, said ring comprising an inner portion (11, 11'), that co-operates with said valve body, and an outer portion, said outer portion comprising a deformable axial wall portion that is capable of deforming elastically in a radially-inward direction, characterized in that the deformable axial wall portion extends towards the bottom of the reservoir and extends radially inwards by a peripheral gap, such as a groove, so as to enable said deformable wall to deform radially inwards.
A device for producing three-dimensional models by means of a 3D printing process, wherein a construction platform for applying construction material is provided and a support frame is arranged around the construction platform, at least one metering unit for particulate material and one solidifying unit for particulate material being mounted to said support frame via longitudinal guides and the support frame being displaceable in Z direction, i.e. substantially perpendicular to a base of the construction platform, characterised in that there is further provided a feeding means comprising a particulate material container for feeding the particulate material to the metering unit in batches from a supply and with the lowest possible shear forces and without substantial interaction with the atmosphere, the particulate material container being movable vertically and horizontally.
A device for supporting window or door elements on the jamb of a wall opening, with - at least one support element having an upper side and a lower side, - a rigid profile rail which has an upper side, a lower side, a first longitudinal end and a second longitudinal end, wherein - the first longitudinal end has openings (23, 24, 25) for receiving fasteners, and - the second longitudinal end has a profile on the upper side with ribs, bolts, recesses and/or pins, wherein the upper side of the support element is formed to be flat in a table-like manner and the lower side has a mating profile which is formed to be complementary to the profile at the second longitudinal end of the profile rail and can therefore be positively connected thereto, characterized in that the profile rail has a tubular profile with at least two mutually opposite, planarly extended and parallel surfaces (32, 34). - at least one support element having an upper side and a lower side, - a rigid profile rail which has an upper side, a lower side, a first longitudinal end and a second longitudinal end, wherein - the first longitudinal end has openings (23, 24, 25) for receiving fasteners, and - the second longitudinal end has a profile on the upper side with ribs, bolts, recesses and/or pins,
A two stage air compressor, having a first and a second cylinder block (10,20), arranged in V defining, respectively, a first and a second cylinder (C1,C2), and being affixed on a base block which defines a crankcase, each cylinder (C1, C2) having a free end closed by a valve plate (PV1,PV2) and by a cylinder head (50, 60) which defines respective suction chambers (51,61) and discharge chambers (52,62), each cylinder (C1,C2) housing a respective piston (P1,P2) driven by a crankshaft housed and supported on the base block, the first and the second cylinder block (10,20) incorporating, respectively, in a single piece, a first and a second duct portion (11,21) having an outer end (11a, 21a) open to the interior of the cylinder head (50, 60) of the respective cylinder (C1, C2,), and an inner end (11b, 21b) turned to the base block, the latter incorporating, in a single piece, a third duct portion connecting the inner ends (11b, 21b) of the first and of the second duct portion (11,21), and forming, therewith, a compressed air duct connecting the discharge chamber of the first cylinder to the suction chamber of the second cylinder, the first and the second duct portions (11,21) being longitudinally provided along the respective cylinder block (10,20), between an external wall portion (12,22) of the latter, turned to the other cylinder block (10,20), and the respective cylinder (C1, C2), the third duct portion being in the form of an elbow, defined in the interior of the crankcase of the base block and connecting the first and the second duct portions (11,21) to each other, the compressor being characterized in that the first and the second cylinder block (10,20) are provided, each one, with a ventilation chamber (13,23) defined between the respective cylinder (C1, C2) and the respective duct portion (11,21) and open at opposite sides according to a direction coinciding with that of the crankshaft, the cylinder head (50,60) of the first and of the second cylinder (C1,C2) having an end wall (53,63) incorporating, in a single piece, cooling fins (53a,63a) turned to the interior of the respective cylinder head (50,60).