mhurhangee/ep-ind-claims huggingface dataset:
A method of operating an IP Multimedia Subsystem, IMS, Access Gateway, IMS-AGW, in order to support the transmission of media to and from an endpoint, using an IMS, wherein the endpoint implements an alternative media transport protocol other than Real-time Transport Protocol, RTP, the method comprising: receiving by the IMS-AGW instructions from an IMS Application Level Gateway, IMS-ALG, for an alternative media transport protocol connection with the endpoint and a RTP connection within the IMS, the instructions including more than one RTP payload type number and a dynamic binding of each of the more than one RTP payload type number to a statically defined codec identifier; storing by the IMS-AGW the dynamic binding of each of the more than one RTP payload type number to a statically defined codec identifier; and when translating by the IMS-AGW between alternative media transport protocol packets carried by the alternative media transport protocol connection and the RTP packets carried by the RTP connection, using the stored binding to map between an RTP payload type number and a codec identifier used by the alternative media transport protocol. receiving by the IMS-AGW instructions from an IMS Application Level Gateway, IMS-ALG, for an alternative media transport protocol connection with the endpoint and a RTP connection within the IMS, the instructions including more than one RTP payload type number and a dynamic binding of each of the more than one RTP payload type number to a statically defined codec identifier; storing by the IMS-AGW the dynamic binding of each of the more than one RTP payload type number to a statically defined codec identifier; and when translating by the IMS-AGW between alternative media transport protocol packets carried by the alternative media transport protocol connection and the RTP packets carried by the RTP connection, using the stored binding to map between an RTP payload type number and a codec identifier used by the alternative media transport protocol.
A method for visualization of cardiovascular pulsation waves comprising following method steps of: - illuminating with a light source the living body with light penetrating through the skin of the body for interacting via absorption and/or scattering with a vascular system of the living body, - collecting the light reflected from the living body in the form of a focused frame (201, 601) into an image capturing unit (106, 107), - capturing a series of frames (201, 601) by the image capturing unit (106, 107); characterized in that it further comprises the steps of: - multiplying by means of a processing unit the frames (201, 601) of the series of frames by a reference function synchronized with a periodical physiological process of the body, - forming by means of the processing unit a correlation image by summarizing respective pixels multiplied by the reference function over the frames (201, 601) of the series of frames, - calculating by means of the processing unit an output image representing dynamics of blood pulsation waves in the living body from the correlation images as function of the phase of the periodical physiological process of the body. - illuminating with a light source the living body with light penetrating through the skin of the body for interacting via absorption and/or scattering with a vascular system of the living body, - collecting the light reflected from the living body in the form of a focused frame (201, 601) into an image capturing unit (106, 107), - capturing a series of frames (201, 601) by the image capturing unit (106, 107); - multiplying by means of a processing unit the frames (201, 601) of the series of frames by a reference function synchronized with a periodical physiological process of the body, - forming by means of the processing unit a correlation image by summarizing respective pixels multiplied by the reference function over the frames (201, 601) of the series of frames, - calculating by means of the processing unit an output image representing dynamics of blood pulsation waves in the living body from the correlation images as function of the phase of the periodical physiological process of the body.
A Medium Voltage pole assembly (1, 100) characterized in that it comprises a supporting frame (2, 102), a pole insulator (3, 103) having a first (4, 104) and a second (5, 105) electrical terminal protruding therefrom, and a pole body housed within said pole insulator (3, 103) and having a first and a second electrical contact couplable and uncouplable with each other and respectively electrically connected to said first (4, 104) and second electrical terminal (5, 105), and further characterized in that said supporting frame (2, 102) comprises first coupling means (10, 110) comprising a first coupling surface (11, 111) and said pole insulator (3, 103) comprises second coupling means (20, 120) comprising one or more flaps (21, 121) slidingly couplable to said first coupling surface (11, 111) and mechanically fixing said pole insulator (3, 103) to said supporting frame (2, 102).
A pallet comprising at least one hollow metal section (20, 54, 80) having a generally flat upper wall (22, 56, 82) and a generally rectangular transverse profile substantially throughout the length thereof, characterised in that each of the hollow metal sections (20, 54, 80) comprises a longitudinally corrugated aluminum strip helically wound into a unitary, laterally closed member with adjacent turns partially overlapping.
Rotary tablet press with an outlet device for pressed articles produced with the rotary tablet press, the rotary tablet press comprising a rotor being driveable in a rotational manner and comprising a die plate having die bores for producing the said pressed articles by means of press punch pairs in the die bores, a deflector device for deflecting the pressed articles, which are produced in the die bores and located on the upper face of the die plate in the production process, to the outlet device for said pressed articles, and a control device configured to control the rotational speed of the rotor, characterized in that the outlet device comprises a conveyor belt for taking over and transporting the pressed articles deflected away from the die plate of the tablet press by the said deflector device, wherein the control device is configured to adjust the conveying speed of the conveyor belt according to the rotational speed of the rotor, and the deflector device comprises a deflector rail with a curved guide wall adapted to partially protrude radially over the circumference of the die plate, for delaying movement of the pressed articles in the operation region of the deflector rail and for guiding the pressed articles parallel to the running direction of the conveyor belt.
Process for producing methanol, comprising the following process steps: a) providing an input gas comprising carbon oxides and hydrogen (H 2), wherein the proportion of carbon dioxide (CO 2) in the input gas, based on the total amount of the carbon oxides, is at least 80% by volume; b) introducing the input gas as a first fresh gas stream into a first compressor stage for precompression of the first fresh gas stream to obtain a second fresh gas stream; c) introducing a recycle gas stream and the second fresh gas stream into a second compressor stage for compression of the recycle gas stream and the second fresh gas stream to synthesis pressure to obtain a synthesis gas stream; d) catalytically converting the synthesis gas of the synthesis gas stream in a plurality of serially arranged reactor stages at synthesis pressure to obtain a product stream comprising methanol and unreacted synthesis gas per reactor stage; e) cooling the product stream obtained per reactor stage for condensation and separation of methanol from unreacted synthesis gas and introducing unreacted synthesis gas into a respective subsequent stage of the serially arranged reactor stages; f) withdrawing unreacted synthesis gas from at least one of the reactor stages as a recycle gas stream for introduction of the recycle gas stream into the second compressor stage according to step c). a) providing an input gas comprising carbon oxides and hydrogen (H 2), wherein the proportion of carbon dioxide (CO 2) in the input gas, based on the total amount of the carbon oxides, is at least 80% by volume; b) introducing the input gas as a first fresh gas stream into a first compressor stage for precompression of the first fresh gas stream to obtain a second fresh gas stream; c) introducing a recycle gas stream and the second fresh gas stream into a second compressor stage for compression of the recycle gas stream and the second fresh gas stream to synthesis pressure to obtain a synthesis gas stream; d) catalytically converting the synthesis gas of the synthesis gas stream in a plurality of serially arranged reactor stages at synthesis pressure to obtain a product stream comprising methanol and unreacted synthesis gas per reactor stage; e) cooling the product stream obtained per reactor stage for condensation and separation of methanol from unreacted synthesis gas and introducing unreacted synthesis gas into a respective subsequent stage of the serially arranged reactor stages; f) withdrawing unreacted synthesis gas from at least one of the reactor stages as a recycle gas stream for introduction of the recycle gas stream into the second compressor stage according to step c).
A blister strip, which can be glued onto the skin and is formed out of at least two sheets and has at least one applicator, for applying a medium contained within the blister and the substances contained in the medium onto or into the skin, wherein the blister strip comprises an upper sheet and a lower sheet, wherein the upper sheet is provided with at least one protrusion (2.1), wherein the underside (2.2) of the upper sheet surrounding the protrusion (2.1) is designed to be adhesive and wherein the lower sheet covers the bottom surface of the blister strip and can be withdrawn from the adhesive underside (2.2) of the upper sheet, wherein an applicator, which divides the protrusion (2.1) into at least two partial volumes, is inserted into the protrusion (2.1) of the upper sheet, the applicator has at least one opening (1.2), which connects two partial volumes, one partial volume is located between the applicator and the lower sheet, and at least one partial volume is entirely enclosed by the inner surface of the protrusion (2.1) and the applicator and contains the medium.
Cooking device (20, 30) comprising: - a flue vent (205, 305) and - a device for transferring heat, characterized in that it comprises: - a series of heat exchangers, each heat exchanger comprising: - a rear inlet for heat-transfer fluid; - a front outlet for heat-transfer fluid, connected by a conduit to the rear inlet; - a front inlet for heated heat-transfer fluid; and - a rear outlet for heated heat-transfer fluid, connected by a conduit to the front inlet; - the front outlet and the front inlet of one heat exchanger being connected, respectively, to the rear inlet and the rear outlet of the heat exchanger that comes after it in this series; and - a means for suspending each heat exchanger within a flue vent of the cooking device. - a flue vent (205, 305) and - a device for transferring heat, characterized in that it comprises: - a series of heat exchangers, each heat exchanger comprising: - a rear inlet for heat-transfer fluid; - a front outlet for heat-transfer fluid, connected by a conduit to the rear inlet; - a front inlet for heated heat-transfer fluid; and - a rear outlet for heated heat-transfer fluid, connected by a conduit to the front inlet; - the front outlet and the front inlet of one heat exchanger being connected, respectively, to the rear inlet and the rear outlet of the heat exchanger that comes after it in this series; and - a means for suspending each heat exchanger within a flue vent of the cooking device. - a series of heat exchangers, each heat exchanger comprising: - a rear inlet for heat-transfer fluid; - a front outlet for heat-transfer fluid, connected by a conduit to the rear inlet; - a front inlet for heated heat-transfer fluid; and - a rear outlet for heated heat-transfer fluid, connected by a conduit to the front inlet; - a rear inlet for heat-transfer fluid; - a front outlet for heat-transfer fluid, connected by a conduit to the rear inlet; - a front inlet for heated heat-transfer fluid; and - a rear outlet for heated heat-transfer fluid, connected by a conduit to the front inlet; - the front outlet and the front inlet of one heat exchanger being connected, respectively, to the rear inlet and the rear outlet of the heat exchanger that comes after it in this series; and - a means for suspending each heat exchanger within a flue vent of the cooking device.
A machine for fabricating a fiber-reinforced component by additive manufacturing comprising: a surface; a matrix feed configured to deposit a plurality of matrix layers on the surface; a fiber feed configured to deposit a fiber layer on at least one of the plurality of matrix layers, the deposition of the plurality of matrix layers and the fiber layer being controlled by a computer; a first energy-source configured to soften any of the plurality of matrix layers; characterized by a pressure source configured to press the fiber layer into a previously deposited matrix layer, wherein the pressure source emits heated air under a pressure. a surface; a matrix feed configured to deposit a plurality of matrix layers on the surface; a fiber feed configured to deposit a fiber layer on at least one of the plurality of matrix layers, the deposition of the plurality of matrix layers and the fiber layer being controlled by a computer; a first energy-source configured to soften any of the plurality of matrix layers; characterized by a pressure source configured to press the fiber layer into a previously deposited matrix layer, wherein the pressure source emits heated air under a pressure.
An in vitro method for determining the sensitizing potential of a test compound, comprising the steps of (a) contacting said test compound with a cell; (b) determining a change in the level of expression of glyceraldehyde-3-phosphate dehydrogenase (GAPDH) and further marker proteins; and (c) determining the sensitizing potential of said test compound based on said change in level of expression wherein an increase in the level of expression of said GAPDH and a change in the level of said further marker proteins is indicative of said test compound having sensitizing potential, wherein said further marker proteins are selected from Table 1, Table 1 Group 1; Table 1 Group 2; or Table 1 Group 3 or a combination thereof, and wherein the cell is representative of a mammalian skin cell. (a) contacting said test compound with a cell; (b) determining a change in the level of expression of glyceraldehyde-3-phosphate dehydrogenase (GAPDH) and further marker proteins; and (c) determining the sensitizing potential of said test compound based on said change in level of expression wherein an increase in the level of expression of said GAPDH and a change in the level of said further marker proteins is indicative of said test compound having sensitizing potential,
Transport container for helium (He) having an inner container for receiving the helium (He), a heat shield which is actively coolable with the aid of a cryogenic liquid (N 2) and in which the inner container is received, an outer container in which the heat shield and the inner container are received, and a support ring provided on the heat shield, wherein the inner container is suspended on the support ring with the aid of first suspensions rods (30 - 33), wherein the support ring is suspended on the outer container with the aid of second suspension rods (34 - 37), wherein at least one of the first suspension rods (30 - 33) has a first spring device and at least one of the second suspension rods (34 - 37) has a second spring device, in order to ensure a spring preloading of the first suspension rods (30 - 33) and the second suspension rods (34 - 37) at different thermal expansions of the inner container and the heat shield.
An RFID device (50,100,150) comprising: an RFID chip; an antenna coupled to the RFID chip; and a member (28, 102, 152) configured to be in a first condition and in a second condition to signify that the RFID device (50,100,150) has been exposed to an event, wherein the member (28, 102, 152) is temperature sensitive and the first condition is below a selected temperature and the second condition is above a selected temperature, wherein the antenna includes a near-field sub-antenna electrically coupled to the RFID chip, characterized in that the antenna further comprises a wide-field sub-antenna electrically coupled to the near-field sub-antenna, and wherein the temperature-sensitive member (28, 102, 152) is incorporated into the wide-field sub-antenna, and the wide-field sub-antenna is designed to communicate with a far-field RF reader. an RFID chip; an antenna coupled to the RFID chip; and a member (28, 102, 152) configured to be in a first condition and in a second condition to signify that the RFID device (50,100,150) has been exposed to an event,
A method, performed by an Extensible Authentication Protocol, EAP, authenticator (500, 700) in a communication network, the method comprising: obtaining an identification of at least one EAP method supported by a home EAP authentication server providing an EAP authentication service to the EAP authenticator, wherein the identification is obtained from a network entity of the communication network; saving (216a, 216b) the identification of the at least one supported EAP method, and broadcasting the identification of the at least one supported EAP method to a device operable to request communication network access from the EAP authenticator, wherein obtaining the identification comprises: sending (212a, 212b) a request to the network entity for identification of EAP methods supported by the home EAP authentication server; and receiving (214a, 214b) from the network entity a response identifying - at least one EAP method supported by the home EAP authentication server and - any EAP methods supported by remote EAP authentication servers trusted by the home EAP authentication server. obtaining an identification of at least one EAP method supported by a home EAP authentication server providing an EAP authentication service to the EAP authenticator, wherein the identification is obtained from a network entity of the communication network; saving (216a, 216b) the identification of the at least one supported EAP method, and broadcasting the identification of the at least one supported EAP method to a device operable to request communication network access from the EAP authenticator, wherein obtaining the identification comprises: sending (212a, 212b) a request to the network entity for identification of EAP methods supported by the home EAP authentication server; and receiving (214a, 214b) from the network entity a response identifying - at least one EAP method supported by the home EAP authentication server and - any EAP methods supported by remote EAP authentication servers trusted by the home EAP authentication server. sending (212a, 212b) a request to the network entity for identification of EAP methods supported by the home EAP authentication server; and receiving (214a, 214b) from the network entity a response identifying - at least one EAP method supported by the home EAP authentication server and - any EAP methods supported by remote EAP authentication servers trusted by the home EAP authentication server. - at least one EAP method supported by the home EAP authentication server and - any EAP methods supported by remote EAP authentication servers trusted by the home EAP authentication server.
Clamping assembly comprising an arrangement of mechanically clamped components (3 - 7) stacked one over another, a clamping device for generating mechanical pressure force (10, 11) on the arrangement of the components (3 - 7), and a pressure piece for transmitting the mechanical pressure force (10, 11) from the clamping device to the arrangement, wherein a pressure distributing body having a cell structure is assigned to the pressure piece, wherein the cell structure is formed by cells bearing against one another and having cell walls (16, 17) which delimit cell cavities and transmit pressure, wherein the cell walls (16, 17) have different cell wall thicknesses and/or the cell cavities have different volumes, characterized in that the cells of the cell structure of the pressure distributing body form a multi-layered cell structure, in such a way that the cells of the pressure distributing body are generally also arranged one over another in a plurality of layers.
An implant system to treat glottic insufficiency of a patient, comprising: a fixation frame comprising first and second flanges at a first edge of the fixation frame and a third flange at a second edge of the fixation frame, wherein the fixation frame is configured to secure the implant system at an opening of the patient's thyroid cartilage, wherein the third flange is configured to extend from the second edge, away from the first edge adjacent the first and second flanges, to cover the opening of the thyroid cartilage; a port system disposed in the fixation frame and configured to deliver, maintain or remove a filler; and a flexible member, coupled to the fixation frame and in fluid or air communication with the port system, wherein based on an amount of the filler in the flexible member, the flexible member is configured to inflate in a direction to push against the patient's arytenoid cartilage so the arytenoid cartilage can be rocked, adducted and/or rotated inferomedially; characterised by further comprising: a fixation block; a fastener, wherein the fastener is configured to secure the fixation block to the third flange of the fixation frame. a fixation frame comprising first and second flanges at a first edge of the fixation frame and a third flange at a second edge of the fixation frame, wherein the fixation frame is configured to secure the implant system at an opening of the patient's thyroid cartilage, wherein the third flange is configured to extend from the second edge, away from the first edge adjacent the first and second flanges, to cover the opening of the thyroid cartilage; a port system disposed in the fixation frame and configured to deliver, maintain or remove a filler; and a flexible member, coupled to the fixation frame and in fluid or air communication with the port system, wherein based on an amount of the filler in the flexible member, the flexible member is configured to inflate in a direction to push against the patient's arytenoid cartilage so the arytenoid cartilage can be rocked, adducted and/or rotated inferomedially; characterised by further comprising: a fixation block; a fastener, wherein the fastener is configured to secure the fixation block to the third flange of the fixation frame. a fixation block; a fastener, wherein the fastener is configured to secure the fixation block to the third flange of the fixation frame.