mhurhangee/ep-ind-claims huggingface dataset:
Method of permanently bonding vulcanized rubber components, characterized by at least the following steps: - applying a first, water-sensitive adhesive to at least one region of the rubber components to be bonded, - applying a second, water-insensitive adhesive to the edges of the region of the first adhesive that point outward, - pressing the components to be bonded together and - allowing the adhesives (2, 3) to react to completion at a temperature of less than 50°C. - applying a first, water-sensitive adhesive to at least one region of the rubber components to be bonded, - applying a second, water-insensitive adhesive to the edges of the region of the first adhesive that point outward, - pressing the components to be bonded together and - allowing the adhesives (2, 3) to react to completion at a temperature of less than 50°C.
Process for the production of compressed tablets, wherein coated particles comprising (i) 40 wt-% - 95 wt-%, based on the total weight of the coated particle, of a core, comprising at least one active ingredient and (ii) 5 wt-% - 60 wt-%, based on the total weight of the coated particle, of a coating system, and said coating system comprises at least one wax and/or at least one fat chosen from the group consisting of glycerine monostearate, carnauba wax, candelilla wax, sugarcane wax, palmitic acid, stearic acid, (fully) hydrogenated cottonseed oil, (fully) hydrogenated palm oil, and (fully) hydrogenated rapeseed oil, are compressed with a pressure of a least 5 kN. (i) 40 wt-% - 95 wt-%, based on the total weight of the coated particle, of a core, comprising at least one active ingredient and (ii) 5 wt-% - 60 wt-%, based on the total weight of the coated particle, of a coating system, and said coating system comprises at least one wax and/or at least one fat chosen from the group consisting of glycerine monostearate, carnauba wax, candelilla wax, sugarcane wax, palmitic acid, stearic acid, (fully) hydrogenated cottonseed oil, (fully) hydrogenated palm oil, and (fully) hydrogenated rapeseed oil, are compressed with a pressure of a least 5 kN.
A method of adjustment for use in a sample milling apparatus having an ion source for emitting an ion beam at a sample such that a trace of the impinging ion beam is left on the sample, a swinging mechanism having a swing axis and operative to swing the sample, a positioning camera for bringing a target milling position on the sample into coincidence with an impact point of the ion beam, and a display section for displaying an image captured by the positioning camera, said method of adjustment comprising the steps of: observing the trace of the impinging ion beam with the positioning camera while the positioning camera is positionally held relative to the swing axis of the swinging mechanism and obtaining an observation image; and extracting a display image to be displayed on the display section from the observation image based on the position of the trace of the impinging ion beam to thereby bring the impact point of the ion beam and the position of a field of view of the display image into coincidence with each other. observing the trace of the impinging ion beam with the positioning camera while the positioning camera is positionally held relative to the swing axis of the swinging mechanism and obtaining an observation image; and extracting a display image to be displayed on the display section from the observation image based on the position of the trace of the impinging ion beam to thereby bring the impact point of the ion beam and the position of a field of view of the display image into coincidence with each other.
A method executed by a controller in a software defined network,SDN, to conserve bandwidth over the SDN network by compressing Internet protocol,IP, headers of data packets traversing the SDN network, where the controller implements a control plane of the SDN network, where the SDN network includes a plurality of switches implementing a data plane of the SDN network, and where the IP headers of the data packets remain compressed as the data packets travers the plurality of switches between an ingress switch and an egress switch in the plurality of switches, the ingress switch being an entry point for the data packets as the data packets traverse the SDN network, the egress switch being an exit point for the data packets as the data packets traverse the SDN network, the method comprising the steps of: configuring a flow table of the ingress switch to forward the data packets to a header compressor module in the ingress switch; configuring the ingress switch to instantiate the header compressor module; and configuring a group table of the ingress switch to manage forwarding of the data packets toward the egress switch. configuring a flow table of the ingress switch to forward the data packets to a header compressor module in the ingress switch; configuring the ingress switch to instantiate the header compressor module; and configuring a group table of the ingress switch to manage forwarding of the data packets toward the egress switch.
Vertically movable gate with a gate panel comprising: several gate panel segments, at least one elongate drive means, a motorized drive which transmits a force for lifting and lowering said gate panel via the elongate drive means to said gate panel, and connection means for connecting said drive means to said gate panel,where several panel segments are each individually connected with the drive means, characterized in that two adjacent panel segments are hingedly connected to one another by way of at least one hinge, wherein the elongate drive means is different from the at least one hinge. several gate panel segments, at least one elongate drive means, a motorized drive which transmits a force for lifting and lowering said gate panel via the elongate drive means to said gate panel, and connection means for connecting said drive means to said gate panel,where several panel segments are each individually connected with the drive means, characterized in that two adjacent panel segments are hingedly connected to one another by way of at least one hinge, wherein the elongate drive means is different from the at least one hinge.
A detection device for use in a bag filling installation for detecting a thick point, in particular of an overlapping area, a film web between a film web end of an insert film and a film web beginning of a subsequent film, having a first film roll and a second film roll, which contact the film web on lateral surfaces oppositely oriented and form a conveying gap for the film web, wherein the first film roll is movably mounted relative to the second film roll, in order to change the conveying gap, and wherein a sensor device for detecting the movement of the first film roll is arranged, wherein the sensor device detects a movement of the film roll in both directions, so that the position of the first film roll relative to the second film roll can be actively determined.
A pipe hanger for supporting a pipe or the like, the pipe hanger comprising a suspension part and a substantially U-shaped hanger part, said hanger part, in use, being arranged around the pipe, said hanger part comprising a loop portion with two limbs (5, 6), which limbs (5, 6) are resiliently moveable towards each other, each limb (5, 6) comprising an outwardly extending hook portion (7a, 7b) at an end thereof for suspending the hanger part, in use, from the suspension part, said suspension part comprising a base and two legs (8a, 8b), said suspension part being adapted to be connectable with a suspension rod at the base of the suspension part, and said legs (8a, 8b) each extending from said base towards a distal end remote from the base, both legs (8a, 8b) comprising an opening (9a, 9b) to receive the hook portion (7a, 7b) of the hanger part, wherein there is a spacing between the inner sides of the distal ends of the legs (8a, 8b) of the suspension part, which spacing, in an unloaded state, is smaller than or equal to the spacing between outward extremities of the hook portions (7a, 7b) of the hanger part, characterised in that, the suspension part further comprises guiding tabs (12a, 12b), said guiding tabs (12a, 12b) extending inwardly with respect to the legs (8a, 8b), said guiding tabs (12a, 12b) being bent away from the legs (8a, 8b), such that, when the limbs (5, 6) of the hanger part are introduced between the legs (8a, 8b) of the suspension part and moved upwards, the legs (8a, 8b) of the suspension part initially resiliently force the limbs (5, 6) of the hanger part towards each other and, subsequently, the guiding tabs (12a, 12b) of the suspension part catch the limbs (5, 6) of the hanger part and guide them outwardly, to move them away from each other, guiding the respective hook portions (7a, 7b) of the limbs (5, 6) towards an edge (13a, 13b) of each respective opening (9a, 9b) in the legs (5, 6), to arrange the hook portion (7a, 7b) around the edge (13a, 13b) of the opening (9a, 9b), thereby suspending the hanger part from the suspension part.
A pressure self-matching energy utilization system, comprising: a synchronous motor, a control valve, a working pump, an energy accumulator and a pressure actuation element; wherein a main outlet of the synchronous motor is connected to a load keeping cavity of the pressure actuation element, a first inlet of the synchronous motor is connected to an oil port of the energy accumulator via a first switch valve of the control valve, and a second inlet of the synchronous motor is connected to an output port of the working pump via a second switch valve of the control valve; and characterized in that the synchronous motor is configured to output pressure oil from both the first inlet and the second inlet to the main outlet. a main outlet of the synchronous motor is connected to a load keeping cavity of the pressure actuation element, a first inlet of the synchronous motor is connected to an oil port of the energy accumulator via a first switch valve of the control valve, and a second inlet of the synchronous motor is connected to an output port of the working pump via a second switch valve of the control valve; and characterized in that the synchronous motor is configured to output pressure oil from both the first inlet and the second inlet to the main outlet.
A counterweight for use in a variable-pitch propeller system, comprising: a weighted element, an arm; and wherein the counterweight is configured to be coupled to a propeller blade; characterised in that the weighted element is having walls forming a sealed chamber, the sealed chamber containing a weighted material, and in that the walls of the weighted element and the arm comprise a single piece, and are an additively manufactured single piece. a weighted element, an arm; and wherein the counterweight is configured to be coupled to a propeller blade; characterised in that the weighted element is having walls forming a sealed chamber, the sealed chamber containing a weighted material,
Method for compensating for an insufficient pressure build-up in the brake system of a vehicle, in particular a motor vehicle, in the event of a failure or malfunction of a brake force booster for brake force assistance upon actuation of an actuating element of the brake system, the compensation being carried out by means of an assembly for the additional pressure build-up in the brake system and triggering this compensation as a function of a position of the actuating element on its adjustment travel, a current position of the actuating element on the adjustment travel being ascertained continuously or periodically, and the triggering and the additional pressure build-up being carried out as a function of this ascertained current position, characterized in that the compensation is triggered if the current position reaches or exceeds a predefinable triggering position on the adjustment travel.
Measuring cartridge for measuring at least one constituent of a liquid sample, in particular blood, and for performing quality control, the cartridge comprising: a casing insertable into a reception opening of a measuring instrument, the casing at least partly surrounding an inner space; wherein the inner space contains: a measurement cell comprising a reception space for the sample and at least one sensor area with which the sample is in contact when loaded into the reception space; characterised by plural quality control containers (13a,13b,13c) respectively holding different quality control solutions (15a,15b,15c); a solution routing system adapted to selectively route one of the quality control solutions (15a,15b,15c) from the respective quality control container (13a,13b,13c) into the reception space of the measurement cell, wherein the different quality control solutions (15a,15b,15c) contain mixtures of plural target constituents, in particular H +, Na +, K +, Ca 2+, Cl 2-, in different concentrations. a casing insertable into a reception opening of a measuring instrument, the casing at least partly surrounding an inner space; wherein the inner space contains: a measurement cell comprising a reception space for the sample and at least one sensor area with which the sample is in contact when loaded into the reception space; characterised by plural quality control containers (13a,13b,13c) respectively holding different quality control solutions (15a,15b,15c); a solution routing system adapted to selectively route one of the quality control solutions (15a,15b,15c) from the respective quality control container (13a,13b,13c) into the reception space of the measurement cell, wherein the different quality control solutions (15a,15b,15c) contain mixtures of plural target constituents, in particular H +, Na +, K +, Ca 2+, Cl 2-, in different concentrations.
Heat exchanger including exchange components and fluid flow components (2, 2', 3), at least one fluid collecting tank (11, 11') into which the exchange components (2, 2', 3) open out, at least one collecting plate for holding the exchange components (2, 2', 3) and a housing for accommodating the exchange components (2, 2', 3), the heat exchanger including a flange for fixing the collecting tank (11, 11') to the housing, the collecting tank (11, 11') and the flange being crimped to each other, characterized in that the flange and the collecting plate are fixed to the housing independently of each other.
An apparatus comprising: a film heater configured to heat smokeable material to volatilize at least one component of the smokeable material for inhalation, the film heater comprising two or more heating regions; a controller configured to activate the heating regions according to a predetermined pattern; and a heating chamber, characterised in that the controller is configured to activate the heating regions sequentially along the heating chamber. a film heater configured to heat smokeable material to volatilize at least one component of the smokeable material for inhalation, the film heater comprising two or more heating regions; a controller configured to activate the heating regions according to a predetermined pattern; and a heating chamber, characterised in that the controller is configured to activate the heating regions sequentially along the heating chamber.
A droplet generator comprising: a chamber (110, 810) including an enclosed space (112, 812) a tube (130, 830) extending through the chamber (110, 810), the tube (130, 830) comprising a sidewall having an outer surface exposed to the enclosed space (112, 812) of the chamber (110, 810), and an inner surface, the tube (130 830) containing liquid; a gas flow channel inside the tube (130, 830); and characterized by further comprising: a heater (150, 850) in the chamber (110, 810), and wherein the enclosed space (112, 812) is filled with gas having vapor, and wherein the heater (150, 850) is operable to change a phase of the liquid contained in the tube (130, 830) to vapor such that the vapor is provided into the enclosed space (112, 812); and a pressure in the enclosed space (112, 812) is higher than a pressure in the gas flow channel such that the vapor in the enclosed space (112, 812) flows to the gas flow channel by passing through the sidewall of the tube (130, 830). a chamber (110, 810) including an enclosed space (112, 812) a tube (130, 830) extending through the chamber (110, 810), the tube (130, 830) comprising a sidewall having an outer surface exposed to the enclosed space (112, 812) of the chamber (110, 810), and an inner surface, the tube (130 830) containing liquid; a gas flow channel inside the tube (130, 830); and characterized by further comprising: a heater (150, 850) in the chamber (110, 810), and wherein the enclosed space (112, 812) is filled with gas having vapor, and wherein the heater (150, 850) is operable to change a phase of the liquid contained in the tube (130, 830) to vapor such that the vapor is provided into the enclosed space (112, 812); and a pressure in the enclosed space (112, 812) is higher than a pressure in the gas flow channel such that the vapor in the enclosed space (112, 812) flows to the gas flow channel by passing through the sidewall of the tube (130, 830).
A composition for use in preventing or improving a periodontal disease, comprising a moringa extract and a eucommia bark extract as active ingredients, wherein a weight ratio of the moringa extract and the eucommia bark extract is 2:1 to 4:1 (moringa extract: eucommia bark extract).
A method, performed by a host computing device comprised of storage hardware and processing hardware, and a network interface card, NIC, the method comprising: executing a virtualization layer that manages the execution of virtual machines, VMs, on the host computing device; securely capturing attestation data of the host computing device, the attestation data corresponding to boot measurements and/or a code integrity policy of the host computing device; sending the attestation data via a network to an attestation service of a guardian service implemented by one or more guardian hosts; receiving a health certificate via the network from the attestation service of the guardian service, the health certificate corresponding to a determination by the guardian service that the attestation data is consistent with securely stored prior health state of the host computing device; transmitting the health certificate to a key service of the guardian service via the network, wherein the health certificate contains an identification of the host computing device, and in response receiving from the key service, a VM key of a VM on the host computing device based on a validation of the health certificate by the key service and a determination by the key service that the identifier of the host computing device corresponds to an identifier authorized to access the VM; and configuring the virtualization layer to use the VM key to decrypt/encrypt all network communications to/from the VM that pass through the virtualization layer. executing a virtualization layer that manages the execution of virtual machines, VMs, on the host computing device; securely capturing attestation data of the host computing device, the attestation data corresponding to boot measurements and/or a code integrity policy of the host computing device; sending the attestation data via a network to an attestation service of a guardian service implemented by one or more guardian hosts; receiving a health certificate via the network from the attestation service of the guardian service, the health certificate corresponding to a determination by the guardian service that the attestation data is consistent with securely stored prior health state of the host computing device; transmitting the health certificate to a key service of the guardian service via the network, wherein the health certificate contains an identification of the host computing device, and in response receiving from the key service, a VM key of a VM on the host computing device based on a validation of the health certificate by the key service and a determination by the key service that the identifier of the host computing device corresponds to an identifier authorized to access the VM; and configuring the virtualization layer to use the VM key to decrypt/encrypt all network communications to/from the VM that pass through the virtualization layer.
The terpolymer of formula: wherein R 1 is selected from hydrogen and linear or branched C 1 -C 4 alkyl; m, n and n' represent the molar fraction of each of the units bound by the symbols [] in the final composition of the polymer compound, wherein (m+n+n') = 1 and m, n and n' are other than zero, and * is understood as the consecutive repetition of said units. wherein R 1 is selected from hydrogen and linear or branched C 1 -C 4 alkyl; m, n and n' represent the molar fraction of each of the units bound by the symbols [] in the final composition of the polymer compound, wherein (m+n+n') = 1 and m, n and n' are other than zero, and * is understood as the consecutive repetition of said units.
A MEMS system, comprising: a first permanent-magnetic microstructure (10, 10', 10") movable along a first direction (10v, 10'v, 10"v); a second permanent-magnetic microstructure (15, 15', 15") arranged to be spaced apart from the first permanent-magnetic microstructure (10, 10', 10"), wherein, by moving the first permanent-magnetic microstructure (10, 10', 10") along the first direction (10v, 10'v, 10"v), the second permanent-magnetic microstructure (15, 15', 15") or one or more elements (15'_1, 15'_2, 15'_3, 15'_4, 15'_5) of the second permanent-magnetic microstructure (15, 15', 15") are either moved or actuated in a second direction (15v, 15'v, 15"v) or undergo rotation; wherein the first permanent-magnetic microstructure (10, 10', 10") is formed by a first array comprising a plurality of permanent-magnetic elements (10'_1, 10'_2, 10'_3, 10'_4, 10'_5); or wherein the second permanent-magnetic microstructure (15, 15', 15") is formed by a second array comprising a plurality of the permanent-magnetic elements (15'_1, 15'_2, 15'_3, 15'_4, 15'_5); and wherein the plurality of the permanent-magnetic elements (10'_1, 10_2, 10'_3, 10'_4, 10'_5, 15'_1, 15'_2, 15'_3, 15'_4, 15'_5) of the first or second array are rigidly connected to one another so that they are similarly moved or actuated as a result of a movement of the first permanent-magnetic microstructure (10, 10', 10") along the second direction (15v, 15'v, 15"v). a first permanent-magnetic microstructure (10, 10', 10") movable along a first direction (10v, 10'v, 10"v); a second permanent-magnetic microstructure (15, 15', 15") arranged to be spaced apart from the first permanent-magnetic microstructure (10, 10', 10"), wherein, by moving the first permanent-magnetic microstructure (10, 10', 10") along the first direction (10v, 10'v, 10"v), the second permanent-magnetic microstructure (15, 15', 15") or one or more elements (15'_1, 15'_2, 15'_3, 15'_4, 15'_5) of the second permanent-magnetic microstructure (15, 15', 15") are either moved or actuated in a second direction (15v, 15'v, 15"v) or undergo rotation; wherein the first permanent-magnetic microstructure (10, 10', 10") is formed by a first array comprising a plurality of permanent-magnetic elements (10'_1, 10'_2, 10'_3, 10'_4, 10'_5); or wherein the second permanent-magnetic microstructure (15, 15', 15") is formed by a second array comprising a plurality of the permanent-magnetic elements (15'_1, 15'_2, 15'_3, 15'_4, 15'_5); and wherein the plurality of the permanent-magnetic elements (10'_1, 10_2, 10'_3, 10'_4, 10'_5, 15'_1, 15'_2, 15'_3, 15'_4, 15'_5) of the first or second array are rigidly connected to one another so that they are similarly moved or actuated as a result of a movement of the first permanent-magnetic microstructure (10, 10', 10") along the second direction (15v, 15'v, 15"v).