mhurhangee/ep-ind-claims huggingface dataset:
A supporting mechanism (4, 4') and a hammock, the supporting mechanism (4, 4') is disposed on the hammock for supporting a mattress, the supporting mechanism (4, 4') and the hammock are adapted for installation on a bedstead, the bedstead including a folding mechanism disposed on the bottom of the bedstead, the supporting mechanism comprising: a folding component (12, 12') disposed on a central position of the hammock, the folding component (12, 12') comprising an upper surface, a lower surface and an avoiding section passing through the upper surface and the lower surface; the avoiding section is adapted so that an operator can insert the hand into the avoiding section and pass through the supporting mechanism (4, 4') for operating the folding mechanism of the bedstead without detaching the hammock from the bedstead; and a plurality of supporting components disposed around the folding component (12, 12') and for supporting the mattress, an end of each of the plurality of supporting components being pivotally connected to the folding component (12, 12'), and the other end of each of the plurality of supporting components being fixed on an edge position of the hammock, wherein the avoiding section is a first through hole disposed on a central position of the folding component (12, 12'). a folding component (12, 12') disposed on a central position of the hammock, the folding component (12, 12') comprising an upper surface, a lower surface and an avoiding section passing through the upper surface and the lower surface; the avoiding section is adapted so that an operator can insert the hand into the avoiding section and pass through the supporting mechanism (4, 4') for operating the folding mechanism of the bedstead without detaching the hammock from the bedstead; and a plurality of supporting components disposed around the folding component (12, 12') and for supporting the mattress, an end of each of the plurality of supporting components being pivotally connected to the folding component (12, 12'), and the other end of each of the plurality of supporting components being fixed on an edge position of the hammock, wherein the avoiding section is a first through hole disposed on a central position of the folding component (12, 12').
A turbine comprising an intermediate casing, a high pressure turbine casing and a low pressure turbine casing, said intermediate casing being axially inserted between said upstream high pressure turbine casing and said downstream low pressure turbine casing and comprising an outer annular shroud from which an annular flange radially extends, characterized in that the downstream end of the high pressure turbine casing and the upstream end of the low pressure turbine casing are attached on the radial annular flange of the intermediate casing, and in that the downstream end of the high pressure turbine casing and/or the upstream end of the low pressure turbine casing radially bears inwards on the outer annular shroud of the intermediate casing.
Optical fibre fanout cable comprising: - a cable portion comprising an outer sheath forming a cavity in which a plurality of cable groups is provided, each cable group in the cable portion comprising a plurality of optical fibres, jointly surrounded by a thin sheath, - a fanout portion comprising a first fanout device in which the plurality of optical fibres of the cable groups is arranged in fanout groups, wherein the combination of optical fibres forming a fanout group is different from the combination of optical fibres forming a cable group, wherein the optical fibres in at least one, preferably each, fanout group are jointly surrounded by a sheath, characterised in that said fanout portion extends between said first fanout device and an end of the optical fibres. - a cable portion comprising an outer sheath forming a cavity in which a plurality of cable groups is provided, each cable group in the cable portion comprising a plurality of optical fibres, jointly surrounded by a thin sheath, - a fanout portion comprising a first fanout device in which the plurality of optical fibres of the cable groups is arranged in fanout groups, wherein the combination of optical fibres forming a fanout group is different from the combination of optical fibres forming a cable group, wherein the optical fibres in at least one, preferably each, fanout group are jointly surrounded by a sheath,
Vehicle tyre having a tread with profile blocks, a carcass ply, a tyre belt, a tyre inner side and sidewalls, wherein a tyre sensor for measuring tyre properties is arranged in the vehicle tyre, wherein at least one sensor for determining material deformations is arranged on a tyre component below the tread, characterized in that the sensor comprises at least two material layers (10, 12), wherein the lower and the upper material layer (10, 12) each comprise a deformation-measuring strip for measuring material deformations at the tread, wherein irregular profile wear at the tread is detected by the sensor and by way of the measuring of material deformations. wherein a tyre sensor for measuring tyre properties is arranged in the vehicle tyre, wherein at least one sensor for determining material deformations is arranged on a tyre component below the tread, characterized in that the sensor comprises at least two material layers (10, 12), wherein the lower and the upper material layer (10, 12) each comprise a deformation-measuring strip for measuring material deformations at the tread, wherein irregular profile wear at the tread is detected by the sensor and by way of the measuring of material deformations.
A lighting device comprising a sheet assembly, the sheet assembly comprising: a substrate being at least partly light transmissive, and a plurality of light sources coupled to the substrate, driver contact pads for connecting driving electronics and/or a power source to the light sources, wherein at least a portion of the sheet assembly is fixed in a rolled-up arrangement so as to form a roll, characterized in that a portion of the sheet assembly at which the driver contact pads are located is unrolled. a substrate being at least partly light transmissive, and a plurality of light sources coupled to the substrate, driver contact pads for connecting driving electronics and/or a power source to the light sources,
A system (10, 20, 30) for evoking a esophageal motion, between a patient's LES and UES: an elongated member (11, 21, 31) sized and configured for nasal or oral placement in the patient's esophagus between the LES and the UES; a series of stimulators (12, 22, 32) mounted or mountable on the elongated member (11, 21, 31), positioned to stimulate a series of spaced apart portions of the esophagus between the LES and the UES; and a generator connected to the series of stimulators (12, 22, 32), the generator configured to generate a signal sequence to the series of stimulators (12, 22, 32), wherein the signal sequence produces a contraction wave of distally-progressing contractions within the esophagus between the LES and the UES, thereby creating a synthetic peristalsis. an elongated member (11, 21, 31) sized and configured for nasal or oral placement in the patient's esophagus between the LES and the UES; a series of stimulators (12, 22, 32) mounted or mountable on the elongated member (11, 21, 31), positioned to stimulate a series of spaced apart portions of the esophagus between the LES and the UES; and a generator connected to the series of stimulators (12, 22, 32), the generator configured to generate a signal sequence to the series of stimulators (12, 22, 32), wherein the signal sequence produces a contraction wave of distally-progressing contractions within the esophagus between the LES and the UES, thereby creating a synthetic peristalsis.
An optical fiber protection system, comprising: an optical fiber; a light source configured to transmit a signal to the optical fiber; and a protection circuit extending along a length direction of the optical fiber; a sensor electrically connected to the protection circuit, wherein the sensor is configured to sense an electrical resistance of the protection circuit; and a controller electrically connected to the sensor and the light source. an optical fiber; a light source configured to transmit a signal to the optical fiber; and a protection circuit extending along a length direction of the optical fiber; a sensor electrically connected to the protection circuit, wherein the sensor is configured to sense an electrical resistance of the protection circuit; and a controller electrically connected to the sensor and the light source.
Heating device for heating the outside of a tubular component, comprising an electrical heating element arranged within a casing tube and which can be pushed together with the casing tube onto the component, wherein the casing tube comprises a slot extending in an axial direction of the component, characterised in that the casing tube forms the outer shell of the heating device, is formed of an integral plated metal sheet with a base layer and a plating layer that is applied on the base layer and has bimetallic characteristics, such that when heating the heating element it builds up a radial pressure on the tubular component, and the casing tube is formed in the region of its edge areas adjoining the slot with integrally formed or separate brackets fastened to the casing tube for a thermocouple disposed inside the slot.
A method for removing hexenuronic acids from pulp, method comprising - obtaining pulp by chemical pulping, - treating the obtained pulp by using a further delignification process comprising an oxygen treatment stage which is an oxygen bleaching stage, oxygen delignification stage or oxygen pre-bleaching stage, where oxygen is added to the pulp under alkaline conditions, carrying out the oxygen treatment stage in the presence of at least one perbenzoic acid, wherein the amount of perbenzoic acid used is 1-500 kg/ton of pulp. - obtaining pulp by chemical pulping, - treating the obtained pulp by using a further delignification process comprising an oxygen treatment stage which is an oxygen bleaching stage, oxygen delignification stage or oxygen pre-bleaching stage, where oxygen is added to the pulp under alkaline conditions,
A data transmission method of a station, STA, in a wireless LAN, WLAN, system, comprising: generating a physical protocol data unit, PPDU, including a data field, and a physical preamble which includes a legacy preamble and a high efficiency-long training field, HE-LTF; and transmitting the PPDU, wherein the data field is transmitted in a period quadruple, 4x, an inverse discrete Fourier transform/discrete Fourier transform, IDFT/DFT, period of the legacy preamble, wherein the HE-LTF is a 4x HE-LTF transmitted in a period quadruple, 4x, the IDFT/DFT period of the legacy preamble or a 2x HE-LTF transmitted in a period double the IDFT/DFT period of the legacy preamble, wherein pilot tones of the HE-LTF are inserted into only subcarriers having even indices from among subcarriers to which the 4x HE-LTF is mapped, wherein values of the pilot tones are determined as a pilot sequence predetermined per stream based on a total number of streams carrying the PPDU or determined as a pilot sequence fixed for all streams irrespective of the total number of streams, and wherein pilot values included in the pilot sequence satisfy a following equation 1, Ψ j = Ψ n − j + 1, wherein n is a total number of pilot tones inserted into the subcarriers, j is a natural number less than or equal to n, Ψj is a pilot value at a j-th position in the pilot sequence, and Ψ(n-j+1) is a pilot value at an (n-j+1)-th position in the pilot sequence. generating a physical protocol data unit, PPDU, including a data field, and a physical preamble which includes a legacy preamble and a high efficiency-long training field, HE-LTF; and transmitting the PPDU, wherein the data field is transmitted in a period quadruple, 4x, an inverse discrete Fourier transform/discrete Fourier transform, IDFT/DFT, period of the legacy preamble, wherein the HE-LTF is a 4x HE-LTF transmitted in a period quadruple, 4x, the IDFT/DFT period of the legacy preamble or a 2x HE-LTF transmitted in a period double the IDFT/DFT period of the legacy preamble, wherein pilot tones of the HE-LTF are inserted into only subcarriers having even indices from among subcarriers to which the 4x HE-LTF is mapped, wherein values of the pilot tones are determined as a pilot sequence predetermined per stream based on a total number of streams carrying the PPDU or determined as a pilot sequence fixed for all streams irrespective of the total number of streams, and wherein pilot values included in the pilot sequence satisfy a following equation 1, Ψ j = Ψ n − j + 1, wherein n is a total number of pilot tones inserted into the subcarriers, j is a natural number less than or equal to n, Ψj is a pilot value at a j-th position in the pilot sequence, and Ψ(n-j+1) is a pilot value at an (n-j+1)-th position in the pilot sequence.
A gypsum containing slurry comprising foam and a ketone resin wherein the ketone resin is: a cyclohexanone / formaldehyde / sulfite condensation product and wherein the gypsum comprises clay, further characterized in that the ketone resin is selected from sizes with molecular weights from 10 000 - 50 000 g/mol.
Hotplate apparatus, particularly for a hotplate having a cover plate which comprises at least two heating zones (10a-10d), having a cooking utensil sensor unit and having a control and/or regulating unit, wherein the cooking utensil sensor unit has at least one bridging detection unit which is provided in order to detect at least one bridging of the at least two heating zones (10a-10d) by means of at least one cooking utensil element, and wherein the bridging detection unit has at least one cooking utensil sensor (22a, 22b) which is provided to detect a cooking utensil element in an inactive region of the cover plate between the two heating zones (10a-10d), wherein the control and/or regulating unit is configured for operating the two heating zones (10a-10d) in a manner matched to one another, dependent at least on the cooking utensil sensor unit.
Method for controlling the heating of an extrusion device of a semi-finished product made of elastomeric material, the extrusion device comprising a plurality of structural units (10,11; 20,21; 30,31; 40,41), each structural unit (10,11; 20,21; 30,31; 40,41) having a working temperature (T 1, T 2, T 3, T 4) different to the working temperature of at least one other structural unit and a thermal inertia (I 1, I 2, I 3, I 4) different to the thermal inertia of at least one other structural unit, the method comprising: a) setting, for each structural unit (10,11; 20,21; 30,31; 40,41), a heating temperature (T h1) to a value equal or close to that of the working temperature (T 1) of the structural unit (20,21) which has the lowest working temperature; b) simultaneously heating all the structural units (10,11; 20,21; 30,31; 40,41) of said extrusion device; c) when the structural unit (20,21) having the lowest working temperature is approaching or has reached said heating temperature (T h1), setting, for the other structural units (10,11; 30,31; 40,41), a subsequent heating temperature (T h2) to a value equal or close to that of the working temperature (T 2) of the structural unit (10,11) of said other structural units (10,11; 30,31; 40,41) whose working temperature is closest to the heating temperature (T h1) previously set; d) iteratively repeating the operations recited in b) and c), for only the structural units (30,31; 40,41) having a working temperature (T 3, T 4) greater than the heating temperature (T h2) lastly set, until all of the structural units (10,11; 20,21; 30,31; 40,41) of the extrusion device have reached the respective working temperature (T 1, T 2, T 3, T 4). a) setting, for each structural unit (10,11; 20,21; 30,31; 40,41), a heating temperature (T h1) to a value equal or close to that of the working temperature (T 1) of the structural unit (20,21) which has the lowest working temperature; b) simultaneously heating all the structural units (10,11; 20,21; 30,31; 40,41) of said extrusion device; c) when the structural unit (20,21) having the lowest working temperature is approaching or has reached said heating temperature (T h1), setting, for the other structural units (10,11; 30,31; 40,41), a subsequent heating temperature (T h2) to a value equal or close to that of the working temperature (T 2) of the structural unit (10,11) of said other structural units (10,11; 30,31; 40,41) whose working temperature is closest to the heating temperature (T h1) previously set; d) iteratively repeating the operations recited in b) and c), for only the structural units (30,31; 40,41) having a working temperature (T 3, T 4) greater than the heating temperature (T h2) lastly set, until all of the structural units (10,11; 20,21; 30,31; 40,41) of the extrusion device have reached the respective working temperature (T 1, T 2, T 3, T 4).
A system for implementing a Forward Search Path Computation, FSPC, for a preferred path crossing a plurality of inter-coupled domains, said preferred path from a source node in a source domain of the plurality of inter-coupled domains to a destination node in a destination domain of the plurality of inter-coupled domains, wherein each domain (220, 250, 280) of the plurality of inter-coupled domains contains or is associated with a path computation element, PCE, wherein each domain comprises a plurality of nodes, wherein a boundary node of a domain on a path towards the destination node is called an egress boundary node and a boundary node of a domain on a path towards the source node is called an ingress boundary node, wherein said plurality of PCEs are configured to communicate with a path computation client, PCC, associated with one of the plurality of inter-coupled domains, characterized in that wherein the PCC is configured to send a request to compute a path for a point to point, P2P, Label Switched Path, LSP, to the PCE responsible for the source domain, called source PCE; the source PCE is configured to compute one or more temporary paths from the source node to each egress boundary nodes of the source domain towards the destination node, wherein the source domain comprises the source node, each of said one or more temporary path being extended with a link from the path's egress boundary node of the source domain to an ingress boundary node in a current domain coupled to the source domain, said source PCE is configured to update a candidate path list using said one or more temporary paths and to update a result path list with a minimum cost path selected from the candidate path list as a working path and configured to forward the request to compute the path for the P2P LSP together with the updated candidate path list and updated result path list to the PCE associated with the current domain, called a current PCE, and the current PCE is configured to compute a plurality of paths from each ingress boundary node in the current domain that are part of the received candidate path list to each egress boundary node in the current domain towards the destination node, each of said paths being extended with a link from the path's egress boundary node of the current domain to an ingress boundary node in another domain coupled to the current domain, said current PCE is configured to update the candidate path list using said temporary paths and to update the result path list with a minimum cost path selected from the candidate path list to update working path and configured to, if the resulting path with the minimum cost leads to the destination node then the current PCE is adapted to return the resulting path in a reply to the PCC and otherwise forward the request to compute the path for the P2P LSP together with the updated candidate path list and updated result path list to the PCE associated with said another domain.
Method for monitoring current collector failure in a rail vehicle consist made up of at least one rail vehicle, comprising a plurality of current collectors and electric cables from the current collectors to a carriage-body-mounted busbar, wherein the surface temperature of at least one electric cable from a current collector to the carriage-body-mounted busbar is determined, and wherein an electrical signal corresponding to this temperature is transmitted to a carriage controller, characterised in that - the carriage controller compares the temperatures of the measuring points assigned to it, - failure of a current collector is detected by the occurrence of a temperature difference between the measuring points of the affected and the unaffected current collectors or by the occurrence of a differential rate of temperature rise at the measuring points. - the carriage controller compares the temperatures of the measuring points assigned to it, - failure of a current collector is detected by the occurrence of a temperature difference between the measuring points of the affected and the unaffected current collectors or by the occurrence of a differential rate of temperature rise at the measuring points.
Device for measuring a volume flow of a fluid flowing in a line, having a housing which is formed by a housing wall, having an inlet through which a fluid can enter the housing from a first section of a line, having an outlet through which a fluid can exit the housing, and having a wall which is movable at least in sections in relation to the housing wall and is fluid-tight and which divides the housing into a first chamber and into a second chamber, wherein, in the housing, there are arranged a first valve and a second valve which interact with one another such that a switching of the first valve or of the second valve from its open position into its closed position brings about a simultaneous switching of the in each case other valve (11, 10) from its closed position into its open position, and such that a switching of the first valve or of the second valve from its closed position into its open position brings about a simultaneous switching of the in each case other valve (11, 10) from its open position into its closed position, wherein the wall interacts with the first valve and with the second valve such that a force which is required for opening the second valve can be transmitted to the first valve and to the second valve by means of a movement of at least one section of the wall, characterized in that the first valve is arranged between the inlet and the first chamber, and in that the second valve is arranged between the first chamber and the second chamber, in that a closing and/or opening of the first valve and/or of the second valve generates a detectable signal, and in that the force which is required for opening the second valve is larger than a force which is required for closing the second valve, with the result that the valve arrangement can be present in a stable position, in which the first valve is open and the second valve is closed, and in a metastable position, in which the first valve is closed and the second valve is open.