mhurhangee/ep-ind-claims huggingface dataset:
A wound-closing dressing comprising: a sealing drape having a first surface and a tissue-facing surface, the sealing drape for placing over a wound; a contracting element coupled to the sealing drape, the contracting element configured to contract when activated and thereby generate a closing force; and a gripping member coupled to the sealing drape, the gripping member configured to transmit the closing force to a patient's epidermis; characterised in that a dissolvable body is coupled to the contracting element, wherein the contracting element is activated when at least a portion of the dissolvable body dissolves. a sealing drape having a first surface and a tissue-facing surface, the sealing drape for placing over a wound; a contracting element coupled to the sealing drape, the contracting element configured to contract when activated and thereby generate a closing force; and a gripping member coupled to the sealing drape, the gripping member configured to transmit the closing force to a patient's epidermis; characterised in that a dissolvable body is coupled to the contracting element, wherein the contracting element is activated when at least a portion of the dissolvable body dissolves.
Method for ensuring the availability of sufficient energy reserves in an intelligent device for performing a service requested from the device by a remote user, wherein the device has an apparatus for generating energy from the environment of the device and a rechargeable energy store connected to the apparatus, comprising the following steps of: a. determining empirical values for the amount of energy needed to perform certain services in the device, b. storing the empirical values in the device, c. requesting a certain service from the device by the user, d. determining the amount of energy available in the device for performing services, e. comparing the empirical value for the amount of energy needed to perform the requested service with the amount of energy available for performing services in the device, f. performing the service if the empirical value for the amount of energy needed to perform the requested service is less than the amount of energy available for performing services in the device, g. declining the performance of the service if the empirical value for the amount of energy needed to perform the requested service is greater than the amount of energy available for performing services in the device, characterized in that - the device is a sensor which is incorporated in a building automation system, and in that - the user is a gateway in a building automation system, an I/O device in a building automation system or a mobile communication device. a. determining empirical values for the amount of energy needed to perform certain services in the device, b. storing the empirical values in the device, c. requesting a certain service from the device by the user, d. determining the amount of energy available in the device for performing services, e. comparing the empirical value for the amount of energy needed to perform the requested service with the amount of energy available for performing services in the device, f. performing the service if the empirical value for the amount of energy needed to perform the requested service is less than the amount of energy available for performing services in the device, g. declining the performance of the service if the empirical value for the amount of energy needed to perform the requested service is greater than the amount of energy available for performing services in the device, - the device is a sensor which is incorporated in a building automation system, and in that - the user is a gateway in a building automation system, an I/O device in a building automation system or a mobile communication device.
A glazing for electric heating, comprising: - a glass sheet; - a conductive coating arranged on the glass sheet; - a first deletion line in the conductive coating forming a heating area; - a second deletion line having a contact with the first deletion line and extending in the heating area; - first and second busbars (5, 6) at least partly on the heating area adjacent the first deletion line; and characterised by - a crossover of first and second busbars (5, 6) at the contact between first and second deletion lines (3, 4). - a glass sheet; - a conductive coating arranged on the glass sheet; - a first deletion line in the conductive coating forming a heating area; - a second deletion line having a contact with the first deletion line and extending in the heating area; - first and second busbars (5, 6) at least partly on the heating area adjacent the first deletion line; and characterised by - a crossover of first and second busbars (5, 6) at the contact between first and second deletion lines (3, 4).
A blower, comprising: an outer housing having an inner chamber, the outer housing defining one discharge port; and an impeller disposed within the inner chamber of the housing, having a first side surface and a second side surface, wherein a first plurality of blades are mounted to the first side surface and a second plurality of blades are mounted to the second side surface; and a motor mounted on the outer housing and coupled to the impeller, characterized in that the outer housing comprises the shape of a snail shell defining an uninterrupted fluid flow path; and in that the blower further comprises a nozzle adapter mounted to or positioned at the discharge port positioned at the end of the fluid flow path, the nozzle adapter defining at least two openings to which two discharge tubes (16, 18) are coupled. an outer housing having an inner chamber, the outer housing defining one discharge port; and an impeller disposed within the inner chamber of the housing, having a first side surface and a second side surface, wherein a first plurality of blades are mounted to the first side surface and a second plurality of blades are mounted to the second side surface; and a motor mounted on the outer housing and coupled to the impeller,
A combustor for a turbine engine, comprising: a first liner; a second liner forming a combustion chamber with the first liner, the combustion chamber configured to receive an air-fuel mixture for combustion therein and having a longitudinal axis that defines axial and radial directions, the first liner being a first dual walled liner comprising a first hot wall facing the combustion chamber and a first cold wall that forms a first liner cavity with the first hot wall, the first liner cavity having forward and aft ends; and a first liner seal configured to seal the aft end of the first liner cavity and to accommodate relative movement of the first hot wall and first cold wall generally in the axial and radial directions, characterized in that the first hot wall includes radially extending first and second hot wall flanges (310, 312) that define a first hot wall groove, and wherein the first liner seal includes a radially extending liner seal flange positioned within the first hot wall groove, wherein the liner seal flange is movable within the first hot wall groove relative to the first and second hot wall flanges (310, 312) generally in the radial direction and is generally retained by the first and second hot wall flanges (310, 312) in the axial direction. wherein the first liner seal and the first hot wall define a first axial cavity, and wherein one end of the first cold wall is positioned within the first axial cavity, and wherein the first cold wall is movable within the first axial cavity relative to the first hot wall and first liner seal generally in the axial direction and is generally retained by the first hot wall and first liner seal in the radial direction. a first liner; a second liner forming a combustion chamber with the first liner, the combustion chamber configured to receive an air-fuel mixture for combustion therein and having a longitudinal axis that defines axial and radial directions, the first liner being a first dual walled liner comprising a first hot wall facing the combustion chamber and a first cold wall that forms a first liner cavity with the first hot wall, the first liner cavity having forward and aft ends; and a first liner seal configured to seal the aft end of the first liner cavity and to accommodate relative movement of the first hot wall and first cold wall generally in the axial and radial directions,
Hoisting device for hoisting a load, the hoisting device comprising: a support beam, two load carrying means (3, 4), able to be slid along the support beam and being adapted to hold the load, characterised in that, the hoisting device further comprises: at least one counterweight able to be slid along the support beam, at least one sensor means in each load carrying means (3, 4), each sensor means being capable of measuring the weight force held by the load carrying means (3, 4), first driving means adapted to make the load carrying means (3, 4) slide along the support beam, second driving means adapted to make the counterweight slide along the support beam, third driving means adapted to hoist the load, a hooking point adapted to be hooked from a crane, and processing means adapted to receive the information produced by the sensor means and adapted to operate the first driving means, the second driving means and the third driving means, in order to move the counterweight to a position such that the centre of mass of the system containing the load and the hoisting device is vertically aligned with the hooking point. a support beam, two load carrying means (3, 4), able to be slid along the support beam and being adapted to hold the load, at least one counterweight able to be slid along the support beam, at least one sensor means in each load carrying means (3, 4), each sensor means being capable of measuring the weight force held by the load carrying means (3, 4), first driving means adapted to make the load carrying means (3, 4) slide along the support beam, second driving means adapted to make the counterweight slide along the support beam, third driving means adapted to hoist the load, a hooking point adapted to be hooked from a crane, and processing means adapted to receive the information produced by the sensor means and adapted to operate the first driving means, the second driving means and the third driving means, in order to move the counterweight to a position such that the centre of mass of the system containing the load and the hoisting device is vertically aligned with the hooking point.
A cooling architecture for a turbine exhaust case employed in an industrial gas turbine engine, the cooling architecture comprising: a frame comprising an inner ring, an outer ring, and a plurality of hollow struts connecting the outer ring to the inner ring and comprising a first hollow portion extending through respective hollow struts from the outer ring to the inner ring; a bearing compartment disposed radially inward of the inner ring; an inner diameter cavity defined between the inner ring and the bearing compartment; a tube for directing cooling airflow radially inward through the turbine exhaust case, wherein the tube extends through outer ring, at least one of the struts, the inner ring, and the first hollow portion and is attached to the bearing compartment, wherein the tube includes a plurality of holes configured for communicating cooling airflow into the inner diameter cavity for mixing with a secondary airflow to form a mixed airflow; a fairing portion comprising hollow fairing struts disposed around the hollow struts and defining a second hollow portion between respective hollow struts and the fairing portion; and a plurality of apertures formed in the hollow struts and configured to direct the mixed airflow into respective second hollow portions from the first hollow portions, wherein the first hollow portions, the plurality of apertures, and the second hollow portions respectively form a serpentine cooling path that directs the mixed airflow radially outward the hollow struts and then radially inward via the hollow fairing struts that surround the hollow struts. a frame comprising an inner ring, an outer ring, and a plurality of hollow struts connecting the outer ring to the inner ring and comprising a first hollow portion extending through respective hollow struts from the outer ring to the inner ring; a bearing compartment disposed radially inward of the inner ring; an inner diameter cavity defined between the inner ring and the bearing compartment; a tube for directing cooling airflow radially inward through the turbine exhaust case, wherein the tube extends through outer ring, at least one of the struts, the inner ring, and the first hollow portion and is attached to the bearing compartment, wherein the tube includes a plurality of holes configured for communicating cooling airflow into the inner diameter cavity for mixing with a secondary airflow to form a mixed airflow; a fairing portion comprising hollow fairing struts disposed around the hollow struts and defining a second hollow portion between respective hollow struts and the fairing portion; and a plurality of apertures formed in the hollow struts and configured to direct the mixed airflow into respective second hollow portions from the first hollow portions, wherein the first hollow portions, the plurality of apertures, and the second hollow portions respectively form a serpentine cooling path that directs the mixed airflow radially outward the hollow struts and then radially inward via the hollow fairing struts that surround the hollow struts.
Finishing train having at least two roll stands and at least one loop lifter which is disposed between two neighboring roll stands and is adjustable to various positions, and having at least one device for laterally guiding a metal strip (1, 13) that by way of different paths runs across the loop lifter (4, 12) between two roll stands (2, 3, 8, 9), said device for lateral guiding comprising at least one main member module having a substantially vertical guiding plane, and a plurality of wear members (18, 19, 20) which are rotatable to a plurality of rotary positions and which have a wear face (21, 22, 23), wherein the wear faces (21, 22, 23) of the wear members (18, 19, 20) are substantially planar and in all rotary positions are substantially parallel to the guiding plane, characterized in that at least two wear members (18, 19, 20) are in each case disposed between one of the roll stands (2, 3, 8, 9) and the loop lifter, wherein the area of the wear face (21, 22, 23) of neighboring wear members (18, 19, 20) increases when viewed in the direction of the loop lifter (4, 12).
Roof provided with a roof covering web rendering the roof surface watertight and a safety device engaging thereon, which safety device comprises a base part (7,27) and a supporting part which is fitted on said roof covering,, wherein fastening means are present which extend through said roof covering and clamp said supporting part and base part (7,27) to one another when accommodating said roof covering, wherein said supporting part comprises a carrier part and a sealing covering. which extends around the latter, characterized in that said base part (7,27) is fitted underneath said roof covering, in that said roof covering is provided with a cut at the location of said base part via which the base part (7,27) can be fitted underneath said roof covering, and in that said base part is provided with a rib (8,28) and the carrier part with a recess accommodating the rib, and wherein said carrier part is elongate.
An inner container made of plastic for transporting and for storing liquids, said inner container comprising, at a front side, an outlet neck for connecting an outlet armature and comprising a bottom wall, which connects two side walls (30, 31), one rear wall and one front wall of the inner container to one another, for supporting the inner container on a pallet bottom of a transport pallet that is provided with an outer jacket for accommodating the inner container, wherein the outlet neck is arranged in a funnel bottom of an outlet funnel which is embodied in the bottom wall, and which comprises four triangular funnel walls (35, 36, 39, 40), to be precise one front funnel wall, two lateral funnel walls and one rear funnel wall, wherein the lateral funnel walls are inclined from a lower edge (32, 33) of a side wall (30, 31) towards the funnel bottom in each case, in such a way that the outlet funnel has the shape of a truncated pyramid above the funnel bottom, characterised in that the funnel bottom is embodied to be cup-shaped and comprises a connecting face for the outlet neck, said connecting face being embodied at a lower edge of the front funnel wall and being arranged parallel to the front wall of the inner container.
A dual band antenna module comprising: a first radiator comprising a first feeding end and a first ground end, wherein the first radiator is configured to resonate to generate a first frequency band; a second radiator comprising a second feeding end and a second ground end, wherein the second radiator is configured to resonate to generate a second frequency band; a first filter extended from the first feeding end in a direction away from the first radiator and configured to filter the second frequency band; a second filter extended from the second feeding end in a direction away from the second radiator and configured to filter the first frequency band; a first ground pattern, connected to the first ground end; and a second ground pattern, connected to the second ground end, wherein the first ground pattern and the second ground pattern are located between the first radiator and the second radiator; characterized in that a part of an outline of the first ground pattern conforms with a part of an outline of the second ground pattern, and the second filter extends along the part of the outline of the first ground pattern and the part of the outline of the second ground pattern and between the first ground pattern and the second ground pattern. a first radiator comprising a first feeding end and a first ground end, wherein the first radiator is configured to resonate to generate a first frequency band; a second radiator comprising a second feeding end and a second ground end, wherein the second radiator is configured to resonate to generate a second frequency band; a first filter extended from the first feeding end in a direction away from the first radiator and configured to filter the second frequency band; a second filter extended from the second feeding end in a direction away from the second radiator and configured to filter the first frequency band; a first ground pattern, connected to the first ground end; and a second ground pattern, connected to the second ground end, wherein the first ground pattern and the second ground pattern are located between the first radiator and the second radiator; characterized in that a part of an outline of the first ground pattern conforms with a part of an outline of the second ground pattern, and the second filter extends along the part of the outline of the first ground pattern and the part of the outline of the second ground pattern and between the first ground pattern and the second ground pattern.
A system comprising: a user interface comprising a display and a user input device; a memory operatively coupled to the user interface; and a processor operatively connected to the user interface and the memory; wherein the memory comprises processor-executable instructions, which can be executed by the processor, to: receive imaging data acquired by imaging tissue using a first imaging modality; receive, at the user interface, an indication of a suspected location of a lesion within the imaged tissue in relation to the received imaging data; select a deformation model based on the received imaging data; apply the selected deformation model to the suspected location of the lesion to generate a predicted location of the lesion when imaging the tissue using a second imaging modality, wherein the deformation model takes into account a difference in deformation of the tissue between the first imaging modality and the second imaging modality; and provide, at the user interface, a visual indication of the predicted location of the lesion for guiding image data acquisition using the second imaging modality. a user interface comprising a display and a user input device; a memory operatively coupled to the user interface; and a processor operatively connected to the user interface and the memory; wherein the memory comprises processor-executable instructions, which can be executed by the processor, to: receive imaging data acquired by imaging tissue using a first imaging modality; receive, at the user interface, an indication of a suspected location of a lesion within the imaged tissue in relation to the received imaging data; select a deformation model based on the received imaging data; apply the selected deformation model to the suspected location of the lesion to generate a predicted location of the lesion when imaging the tissue using a second imaging modality, wherein the deformation model takes into account a difference in deformation of the tissue between the first imaging modality and the second imaging modality; and provide, at the user interface, a visual indication of the predicted location of the lesion for guiding image data acquisition using the second imaging modality. receive imaging data acquired by imaging tissue using a first imaging modality; receive, at the user interface, an indication of a suspected location of a lesion within the imaged tissue in relation to the received imaging data; select a deformation model based on the received imaging data; apply the selected deformation model to the suspected location of the lesion to generate a predicted location of the lesion when imaging the tissue using a second imaging modality, wherein the deformation model takes into account a difference in deformation of the tissue between the first imaging modality and the second imaging modality; and provide, at the user interface, a visual indication of the predicted location of the lesion for guiding image data acquisition using the second imaging modality.
Process for purifying dialkyl carbonates in at least one distillation column containing at least one enrichment section in the upper part of the column and at least one stripping section in the lower part of the column, characterized in that, at the top of a transesterification column a dialkyl carbonate/alkyl alcohol mixture is taken off and fed to the distillation column, wherein, in the distillation column for working up the dialkyl carbonate/alkyl alcohol mixture, a technical apparatus for heating the internal liquid stream in the column is used, wherein the internal liquid stream in the column is heated to a temperature level T z, T z < T sv, and T sv is the temperature level required to operate a bottom vaporizer, and the energy used to heat the internal liquid stream in the column is partly or entirely recovered from another chemical production process.
Method for introducing an active compound selected between a medicament and a lubricating agent into a soft hydrated contact lens comprising: - providing a hypotonic aqueous solution having an osmolarity value less than 150 mOsm and an effective quantity of the active compound, - immersing the soft contact lens in the aqueous hypotonic solution, characterised in that the contact lens immersed in the aqueous hypotonic solution are subjected for a predetermined time to mechanical vibrations having a power greater than 100 mW and a frequency from 150 Hz to 250 Hz. - providing a hypotonic aqueous solution having an osmolarity value less than 150 mOsm and an effective quantity of the active compound, - immersing the soft contact lens in the aqueous hypotonic solution,