mhurhangee/ep-ind-claims huggingface dataset:
A curable composition comprising a component, a component and a component, wherein the mass ratio of the component and the component (component:component) is 100:0.1 to 100:50, the mass ratio of the component and the component (component:component) is 100:0.3 to 100:30, the component is a silane compound polymer that is represented by a formula (a-1), (R 1 SiO 3/2) m (R 1 SiZO 2/2) n (R 1 SiZ 2 O 1/2) o ··· (a-1) wherein R 1 is a group selected from an alkyl group having 1 to 20 carbon atoms, a cycloalkyl group having 3 to 10 carbon atoms, and a substituted or unsubstituted aryl group having 6 to 20 carbon atoms, Z is a hydroxyl group, an alkoxy group having 1 to 10 carbon atoms, or a halogen atom, m is a positive integer, and n and o are independently 0 or a positive integer, provided that a plurality of R 1 are either identical or different, and a plurality of Z are either identical or different, the component is a silane coupling agent that comprises a sulfur atom-containing functional group in its molecule, and the component is a silane coupling agent that comprises an acid anhydride structure in its molecule.
Apparatus for transforming plastic parisons to plastic containers with a transport device which transports the plastic parisons along a predetermined transport path, wherein the transport device has a movable station support arranged at least indirectly on a stationary base support on which a plurality of transforming stations is arranged, wherein these transforming stations each have blow mould devices which each form cavities within which the plastic parisons can be transformed into the plastic containers and these blow mould devices are each disposed on blow mould supports, wherein the apparatus has a changing device which is suitable and intended at least to remove the blow moulding devices from their blow mould supports and/or to arrange blow moulding devices on the blow mould supports, wherein this changing device has at least one gripping device for gripping the blow moulding device, wherein the gripping device is suitable for selectively changing a complete blow moulding device or only parts (14a, 14b, 14c) of the blow moulding device, wherein the reshaping station and in particular the blow moulding device has at least one channel for conveying a flowable medium as well as at least one coupling device which can be separated from the channel, characterised in that the changing device is suitable and intended to separate and/or to connect the coupling device and/or to break and/or to make a flow connection between the channel and the coupling device, wherein a device which is located on the changing device which automatically releases and/or connects the coupling device during gripping of the mould.
A method of a first device to perform partial sensing in a sidelink resource pool, comprising: triggering to perform resource selection for a sidelink data at a timing, wherein the first device discontinuously receives or monitors sidelink control information for a plurality of contiguous time durations in a sensing window before the timing and the plurality of contiguous time durations comprise a last contiguous time duration before the timing; performing partial sensing for a contiguous sensing duration after the timing; determining or selecting a first sidelink resource from a set of sidelink resources, wherein the set of sidelink resources is derived or determined based on at least sensing results of a specific value of Transmission Time Intervals, in the following also referred to as TTIs, which comprises TTIs in the contiguous sensing duration after the timing and all or a latter part of contiguous TTIs in the last contiguous time duration before the timing; and performing a first sidelink transmission on the first sidelink resource for transmitting the sidelink data to a second device. triggering to perform resource selection for a sidelink data at a timing, wherein the first device discontinuously receives or monitors sidelink control information for a plurality of contiguous time durations in a sensing window before the timing and the plurality of contiguous time durations comprise a last contiguous time duration before the timing; performing partial sensing for a contiguous sensing duration after the timing; determining or selecting a first sidelink resource from a set of sidelink resources, wherein the set of sidelink resources is derived or determined based on at least sensing results of a specific value of Transmission Time Intervals, in the following also referred to as TTIs, which comprises TTIs in the contiguous sensing duration after the timing and all or a latter part of contiguous TTIs in the last contiguous time duration before the timing; and performing a first sidelink transmission on the first sidelink resource for transmitting the sidelink data to a second device.
Hydraulic shock absorber, comprising: a cylinder body having a first end portion as one end portion in an axial direction, and a second end portion as the other end portion in the axial direction, a piston dividing the inside of the cylinder body into a first oil chamber on the first end portion side and second oil chamber on the second end portion side, a shock absorber connecting portion, a piston rod attached to the shock absorber connecting portion via a damping member, wherein the piston rod passes through the second end portion of the cylinder body from the piston and protruding to the outside of the cylinder body, a volume adjustment mechanism capable of pushing on the operating oil using pressure of a high-pressure gas, and a communicating passage (14,15) for communicating the first oil chamber and the second oil chamber via a diaphragm, wherein is provided a pressure-applying mechanism capable of pushing the piston rod toward the first end portion of the cylinder body, wherein the pressure-applying mechanism being disposed outside the cylinder body, and the movement of the pressure-applying mechanism being restricted by the shock absorber connecting portion, characterized in that the pressure-applying mechanism has a compression coil spring capable of pushing the piston rod, the spring member being positioned on the same axis as the piston rod. a cylinder body having a first end portion as one end portion in an axial direction, and a second end portion as the other end portion in the axial direction, a piston dividing the inside of the cylinder body into a first oil chamber on the first end portion side and second oil chamber on the second end portion side, a shock absorber connecting portion, a piston rod attached to the shock absorber connecting portion via a damping member, wherein the piston rod passes through the second end portion of the cylinder body from the piston and protruding to the outside of the cylinder body, a volume adjustment mechanism capable of pushing on the operating oil using pressure of a high-pressure gas, and a communicating passage (14,15) for communicating the first oil chamber and the second oil chamber via a diaphragm, wherein is provided a pressure-applying mechanism capable of pushing the piston rod toward the first end portion of the cylinder body, wherein the pressure-applying mechanism being disposed outside the cylinder body, and the movement of the pressure-applying mechanism being restricted by the shock absorber connecting portion, characterized in that the pressure-applying mechanism has a compression coil spring capable of pushing the piston rod, the spring member being positioned on the same axis as the piston rod.
Use of a stabilizer composition comprising a stabilizing amount of vitamin E acetate in an organic polymer material for improving the rheological property of said organic polymer material, wherein the improved rheological property is measured by less variation in the values of melt index of said organic polymer material upon repeat measurements thereof in multiple-pass extrusion testing.
A method for prenatal diagnosis of foetal cells isolated from maternal blood, comprising the following steps: a) filtering a sample of pure or diluted maternal blood on a filter with a pore size in the range 6 to 15 microns, so as to concentrate certain circulating cells on the filter according to their size, and in particular cells of foetal origin with a size in the range 14 to 47 microns; b) analysing and characterizing the isolated cells retained on the filter by investigating the presence of immunological and/or cytological and/or genetic marker(s) in order to identify their epithelial nature and to obtain a presumption of their foetal or maternal origin; and individually collecting the epithelial cell or cells the foetal origin of which is presumed; c) demonstrating the foetal origin of the cell(s) of presumed foetal origin individually collected in step b), by genetic analysis; d) investigating genetic anomalies on the genome(s) of cell(s) the foetal origin of which has been demonstrated in step c). a) filtering a sample of pure or diluted maternal blood on a filter with a pore size in the range 6 to 15 microns, so as to concentrate certain circulating cells on the filter according to their size, and in particular cells of foetal origin with a size in the range 14 to 47 microns; b) analysing and characterizing the isolated cells retained on the filter by investigating the presence of immunological and/or cytological and/or genetic marker(s) in order to identify their epithelial nature and to obtain a presumption of their foetal or maternal origin; and individually collecting the epithelial cell or cells the foetal origin of which is presumed; c) demonstrating the foetal origin of the cell(s) of presumed foetal origin individually collected in step b), by genetic analysis; d) investigating genetic anomalies on the genome(s) of cell(s) the foetal origin of which has been demonstrated in step c).
A device (20, 40) of a semi-underground waste container, comprising: a frame structure arranged to be positioned on the edges of a container body of the semi-underground waste container, a lifting bag fixed beneath the frame structure and arranged to be placed inside the container body for receiving waste, a lid comprising a drop-hole opening with an openable drop-hole lid and arranged on top of the frame structure, and a lifting loop that is attached on top of the frame structure and extends through an opening of the lid, and wherein the device (20, 40) is arranged to be lifted when emptying the lifting bag, characterised in that the device (20, 40) further comprises a hinge structure, wherein the hinge structure is connected between the frame structure and the lid for enabling opening of the whole lid in addition to the drop-hole lid of the drop-hole opening.
A method for estimating vapor phase corrosion load in a paper or board manufacturing system, comprising: i. determining in a defined location of an aqueous process flow a threshold rH value; and ii. determining rH values of said aqueous flow in said defined location over a defined time period in defined time points; and iii. calculating Δ rH in each time point as a difference between a determined rH value and the predetermined rH threshold value obtained in step i, wherein the calculated value Δ rH is at least zero; and iv. calculating Σ Δ rH as a cumulative sum of Δ rH values obtained in step iii or alternatively, steps (iii) and (iv) above are replaced by v. calculating cumulative sum of each determined rH value obtained in step ii wherein the determined rH value is at least the predetermined rH threshold value; and vi. calculating Σ Δ rH as a difference between the cumulative sum obtained in step v and the threshold value obtained in step i multiplied with the defined number of time points; and using the Σ Δ rH obtained in step iv or vi to estimate the corrosion load wherein increase in Σ Δ rH indicates an increase in corrosion load and decrease in Σ Δ rH indicates a decrease in corrosion load, wherein rH = 2 * pH + 2 * Eh * F / c * R * T wherein F = Faraday constant (9.64853399 x 10 4 C mol -1, c = In10, T = temperature, Eh = redox potential measured with standard hydrogen electrode, and R = universal gas constant (8.314472 J K -1 mol -1), and wherein determination of rH value involves measurement of temperature, pH and redox potential. i. determining in a defined location of an aqueous process flow a threshold rH value; and ii. determining rH values of said aqueous flow in said defined location over a defined time period in defined time points; and iii. calculating Δ rH in each time point as a difference between a determined rH value and the predetermined rH threshold value obtained in step i, wherein the calculated value Δ rH is at least zero; and iv. calculating Σ Δ rH as a cumulative sum of Δ rH values obtained in step iii or alternatively, steps (iii) and (iv) above are replaced by v. calculating cumulative sum of each determined rH value obtained in step ii wherein the determined rH value is at least the predetermined rH threshold value; and vi. calculating Σ Δ rH as a difference between the cumulative sum obtained in step v and the threshold value obtained in step i multiplied with the defined number of time points; and using the Σ Δ rH obtained in step iv or vi to estimate the corrosion load wherein increase in Σ Δ rH indicates an increase in corrosion load and decrease in Σ Δ rH indicates a decrease in corrosion load, wherein rH = 2 * pH + 2 * Eh * F / c * R * T wherein F = Faraday constant (9.64853399 x 10 4 C mol -1, c = In10, T = temperature, Eh = redox potential measured with standard hydrogen electrode, and R = universal gas constant (8.314472 J K -1 mol -1), and wherein determination of rH value involves measurement of temperature, pH and redox potential.
A method for calibrating a temperature sensor arranged in a vapour compression system, the vapour compression system comprising a compressor, a condenser, an expansion device having a variable opening degree, and an evaporator arranged along a refrigerant path, the vapour compression system further having a first temperature sensor, S 1, arranged in the refrigerant path at an inlet opening of the evaporator, and a second temperature sensor, S 2, arranged in the refrigerant path at an outlet opening of the evaporator, the method comprising the steps of: - alternatingly increasing and decreasing the opening degree of the expansion device between a maximum opening degree and a minimum opening degree, thereby defining a plurality of cycles of the opening degree of the expansion device, - at least for a part of each cycle of the opening degree of the expansion device, monitoring a temperature of refrigerant entering the evaporator by means of the first temperature sensor, S 1, and monitoring a temperature of refrigerant leaving the evaporator by means of the second temperature sensor, S 2, - for each cycle of the opening degree of the expansion device, registering a maximum temperature, T 1,max, measured by the first temperature sensor, S 1, and registering a minimum temperature, T 2, min, measured by the second temperature sensor, S 2, - for each cycle of the opening degree of the expansion device, calculating a calibration value, ΔT 1, as ΔT 1 =C-(T 2, min - T 1. max), where C is a constant, - selecting a maximum calibration value, ΔT 1,max, among the calibration values, ΔT 1, calculated for each of the plurality of cycles of the opening degree of the expansion device, and - adjusting temperature measurements performed by the first temperature sensor, S 1, by an amount defined by ΔT 1, max. - alternatingly increasing and decreasing the opening degree of the expansion device between a maximum opening degree and a minimum opening degree, thereby defining a plurality of cycles of the opening degree of the expansion device, - at least for a part of each cycle of the opening degree of the expansion device, monitoring a temperature of refrigerant entering the evaporator by means of the first temperature sensor, S 1, and monitoring a temperature of refrigerant leaving the evaporator by means of the second temperature sensor, S 2, - for each cycle of the opening degree of the expansion device, registering a maximum temperature, T 1,max, measured by the first temperature sensor, S 1, and registering a minimum temperature, T 2, min, measured by the second temperature sensor, S 2, - for each cycle of the opening degree of the expansion device, calculating a calibration value, ΔT 1, as ΔT 1 =C-(T 2, min - T 1. max), where C is a constant, - selecting a maximum calibration value, ΔT 1,max, among the calibration values, ΔT 1, calculated for each of the plurality of cycles of the opening degree of the expansion device, and - adjusting temperature measurements performed by the first temperature sensor, S 1, by an amount defined by ΔT 1, max.
Electronically controllable pneumatic brake system for a vehicle, preferably a commercial vehicle, comprising: an electronic operating control unit; at least one first brake pressure modulator which is connected to a first compressed air supply for receiving supply pressure (pV), and which, in response to first operating brake signals provided by the electronic operating control unit, controls a first operating brake pressure at at least one first operating brake pressure port, an electronic redundancy control unit; at least one first redundancy pressure modulator which is connected to the first compressed air supply or to a further compressed air supply for receiving supply pressure (pV), and which, in response to first redundancy brake signals provided by the electronic redundancy control unit, controls a first redundancy brake pressure at at least one first redundancy brake pressure port, characterized in that the first brake pressure modulator comprises a first vent port for venting the first operating brake pressure, the first redundancy pressure modulator comprises a first redundancy vent port for venting the first redundancy brake pressure and the first redundancy brake pressure port is connected to the first vent port so that the first redundancy brake pressure is controllable via a first vent path of the first brake pressure modulator at the first operating brake pressure port. an electronic operating control unit; at least one first brake pressure modulator which is connected to a first compressed air supply for receiving supply pressure (pV), and which, in response to first operating brake signals provided by the electronic operating control unit, controls a first operating brake pressure at at least one first operating brake pressure port, an electronic redundancy control unit; at least one first redundancy pressure modulator which is connected to the first compressed air supply or to a further compressed air supply for receiving supply pressure (pV), and which, in response to first redundancy brake signals provided by the electronic redundancy control unit, controls a first redundancy brake pressure at at least one first redundancy brake pressure port, characterized in that the first brake pressure modulator comprises a first vent port for venting the first operating brake pressure, the first redundancy pressure modulator comprises a first redundancy vent port for venting the first redundancy brake pressure and the first redundancy brake pressure port is connected to the first vent port so that the first redundancy brake pressure is controllable via a first vent path of the first brake pressure modulator at the first operating brake pressure port.
Household refrigeration appliance, having - a heat-insulated carcass with an inner container, which delimits a coolable interior provided for storing food and which has a pocket-shaped recess with a bottom, - a refrigeration apparatus for cooling the coolable interior, - a door leaf, which is provided to close the coolable interior in the closed state and allow access to it in the opened state, and - an interior lighting system fastened in the pocket-shaped recess for lighting the coolable interior when the door leaf is opened, wherein the bottom of the pocket-shaped recess has at least one fastening apparatus and the interior lighting system has at least one mating fastening apparatus, which is fastened to the at least one fastening apparatus, the fastening apparatus is configured as an opening in the bottom of the pocket-shaped recess, in which the mating fastening apparatus is fastened and the opening in the fastening apparatus has a first region with a width (b), which is configured in the manner of a slot, and a second region directly adjoining the first region with a width that is greater than the width (b) of the first region and the mating fastening apparatus comprises overlapping regions overlapping a region and the region at least at the sides, wherein the overlapping regions of the mating fastening apparatus engage behind the pocket-shaped recess in the region of lateral edge regions of the first region of the opening in the fastening apparatus, wherein the overlapping regions of the mating fastening apparatus and the second region of the opening in the fastening apparatus are dimensioned such that, to fasten the interior lighting system in the pocket-shaped recess, the overlapping regions of the mating fastening apparatus can be passed through the second region of the opening in the fastening apparatus, in order then to push the region of the mating fastening apparatus into the first region of the opening of the fastening apparatus in such a manner that the overlapping regions of the mating fastening apparatus engage behind the pocket-shaped recess in the region of the lateral edge regions of the first region of the opening in the fastening apparatus, wherein the overlapping regions of the mating fastening apparatus are configured such that they interact with the remainder of the interior lighting system and the lateral edge regions of the first region of the opening in the fastening apparatus with a form fit and/or force fit, wherein at least one of the overlapping regions of the mating fastening apparatus is embodied as a pretensioned spring to press against the pocket-shaped recess when engaging behind. - a heat-insulated carcass with an inner container, which delimits a coolable interior provided for storing food and which has a pocket-shaped recess with a bottom, - a refrigeration apparatus for cooling the coolable interior, - a door leaf, which is provided to close the coolable interior in the closed state and allow access to it in the opened state, and - an interior lighting system fastened in the pocket-shaped recess for lighting the coolable interior when the door leaf is opened,
A process comprising: a) providing i) organic matter, and ii) a population of at least one genus of a hyperthermophilic organism; b) degrading said organic matter by fermentation or by an-aerobic or aerobic respiration in the presence of said population of at least one genus of a hyperthermophilic organism to produce hydrogen and a liquid fermentation broth comprising acetate, and c) introducing said liquid fermentation broth from step b) into a methane bioreactor to produce biogas in a second fermentation process. a) providing i) organic matter, and ii) a population of at least one genus of a hyperthermophilic organism; i) organic matter, and ii) a population of at least one genus of a hyperthermophilic organism; b) degrading said organic matter by fermentation or by an-aerobic or aerobic respiration in the presence of said population of at least one genus of a hyperthermophilic organism to produce hydrogen and a liquid fermentation broth comprising acetate, and c) introducing said liquid fermentation broth from step b) into a methane bioreactor to produce biogas in a second fermentation process.
A polymer composition comprising a polyamide polymer, a crystallizable polyester and an interfacial tension reducing agent, wherein the interfacial tension reducing agent comprises lithium or is selected from the group consisting of metal sulfonates, wherein the polyamide polymer is nylon MXD6, wherein the amino to carboxyl end group ratio of the polyamide polymer is less than 0.20, and at least 85% of the crystallizable polyester's acid units are derived from the group consisting of terephthalic acid and the dimethyl ester of terephthalic acid.