mhurhangee/ep-ind-claims huggingface dataset:
A miniaturized, disposable, portable, battery powered canisterless pump assembly (104, 1000) for use in a negative pressure therapy kit for reduced pressure wound therapy, comprising: a housing; a pump supported within or by the housing, the pump comprising: a motor; an inlet and an outlet; a first valve configured to control a flow of a fluid through the inlet; a second valve configured to control a flow of a fluid through the outlet; a flow pathway through the pump assembly; a controller supported within or by the housing; and a single control button or switch (122, 1002) supported by the housing; one or more indicator lights (132, 1062, 1064, 1066) configured to alert a user to operating and/or failure conditions of the pump assembly; wherein the pump assembly is configured to transition to an end of life state when a duration of time has been reached or exceeded and indicate to a user that the pump assembly is to be disposed of; and a one-way flow valve in fluid communication with the pump; wherein the pump assembly further comprises a connector (128, 1150) for connecting a conduit wherein said conduit is configured to be connected to a wound dressing. a housing; a pump supported within or by the housing, the pump comprising: a motor; an inlet and an outlet; a first valve configured to control a flow of a fluid through the inlet; a second valve configured to control a flow of a fluid through the outlet; a flow pathway through the pump assembly; a controller supported within or by the housing; and a single control button or switch (122, 1002) supported by the housing; one or more indicator lights (132, 1062, 1064, 1066) configured to alert a user to operating and/or failure conditions of the pump assembly; wherein the pump assembly is configured to transition to an end of life state when a duration of time has been reached or exceeded and indicate to a user that the pump assembly is to be disposed of; and a one-way flow valve in fluid communication with the pump; wherein the pump assembly further comprises a connector (128, 1150) for connecting a conduit wherein said conduit is configured to be connected to a wound dressing. a motor; an inlet and an outlet; a first valve configured to control a flow of a fluid through the inlet; a second valve configured to control a flow of a fluid through the outlet; a flow pathway through the pump assembly; a controller supported within or by the housing; and a single control button or switch (122, 1002) supported by the housing; one or more indicator lights (132, 1062, 1064, 1066) configured to alert a user to operating and/or failure conditions of the pump assembly; wherein the pump assembly is configured to transition to an end of life state when a duration of time has been reached or exceeded and indicate to a user that the pump assembly is to be disposed of; and a one-way flow valve in fluid communication with the pump; wherein the pump assembly further comprises a connector (128, 1150) for connecting a conduit wherein said conduit is configured to be connected to a wound dressing.
A method of controlling source terminal transmissions from a source terminal in an in-band communication system, the method comprising: detecting, at the source terminal, a request signal to transmit a user data message; storing, at the source terminal, a message identifier; transmitting a synchronization signal from the source terminal upon detection of the request signal; transmitting the user data message from the source terminal; detecting, at the source terminal, a low layer acknowledgement, LLACK, signal from a destination terminal, the LLACK signal being transmitted by the destination terminal in response to the reception of the user data message by the destination terminal, wherein the LLACK signal not including the message identifier; detecting, at the source terminal, a transformed high layer application, HLMSG, signal from the destination terminal, the transformed HLMSG signal being generated by the low layer of the destination terminal by transforming a HLMSG signal generated by the high layer of the destination terminal in response to the high layer of the destination terminal receiving the user data message from the low layer of the destination terminal; retrieving, at the source terminal, the stored message identifier; and, generating, at the source terminal, the HLMSG signal from the retrieved message identifier and the received transformed HLMSG signal. detecting, at the source terminal, a request signal to transmit a user data message; storing, at the source terminal, a message identifier; transmitting a synchronization signal from the source terminal upon detection of the request signal; transmitting the user data message from the source terminal; detecting, at the source terminal, a low layer acknowledgement, LLACK, signal from a destination terminal, the LLACK signal being transmitted by the destination terminal in response to the reception of the user data message by the destination terminal, wherein the LLACK signal not including the message identifier; detecting, at the source terminal, a transformed high layer application, HLMSG, signal from the destination terminal, the transformed HLMSG signal being generated by the low layer of the destination terminal by transforming a HLMSG signal generated by the high layer of the destination terminal in response to the high layer of the destination terminal receiving the user data message from the low layer of the destination terminal; retrieving, at the source terminal, the stored message identifier; and, generating, at the source terminal, the HLMSG signal from the retrieved message identifier and the received transformed HLMSG signal.
A process for preparing fluoromethyl 2,2,2-trifluoro-1-(trifluoromethyl)ethyl ether (sevoflurane) comprising reacting a mixture comprising 1,1,1,3,3,3-hexafluoro-2-propanol (HFIP), formaldehyde and hydrogen fluoride in the presence of or with the subsequent addition of a solvent selected from chlorofluorocarbons, chlorohydrocarbons, perfluorohydrocarbons, perfluoroethers and hydrocarbons that is capable of selectively extracting sevoflurane.
A wireless communication method, comprising: generating, by a device, a message to be transmitted via a plurality of transmission channels, wherein the message includes information indicative of: a plurality of channel indexes associated with the plurality of transmission channels; and transmitting the message on each of the plurality of transmission channels associated with the device, wherein the plurality of transmission channels are selected by the device independently, wherein the message includes information about a plurality of pilot signals associated with the plurality of transmission channels, wherein the plurality of pilot signals are independently selected or generated by the device, wherein a pilot signal is independently selected for each channel, and wherein the plurality of pilot signals for the plurality of transmission channels are uncorrelated or independent. generating, by a device, a message to be transmitted via a plurality of transmission channels, wherein the message includes information indicative of: a plurality of channel indexes associated with the plurality of transmission channels; and transmitting the message on each of the plurality of transmission channels associated with the device, wherein the plurality of transmission channels are selected by the device independently, wherein the message includes information about a plurality of pilot signals associated with the plurality of transmission channels, wherein the plurality of pilot signals are independently selected or generated by the device, wherein a pilot signal is independently selected for each channel, and wherein the plurality of pilot signals for the plurality of transmission channels are uncorrelated or independent.
A phase tracking reception method for a wireless communication system, the method comprising: initiating processing of a preamble of a wireless frame received by multiple space time streams, the preamble including a plurality of very high throughput long training fields, VHT-LTFs, each of the VHT-LTFs including pilot tones and data tones, wherein the pilot tones are the same for the multiple space time streams; for a first VHT-LTF of the plurality of VHT-LTFs, estimating (802, 804) a first one dimensional channel response for each of the pilot tones of the first VHT-LTF; for a second VHT-LTF of the plurality of VHT-LTFs estimating a first phase rotation in response to the first one dimensional channel response and the pilot tones of the second VHT-LTF; and applying a phase correction to the data tones of the second VHT-LTF in response to the first phase rotation, thereby generating a plurality of corrected data tones for a downstream processing. initiating processing of a preamble of a wireless frame received by multiple space time streams, the preamble including a plurality of very high throughput long training fields, VHT-LTFs, each of the VHT-LTFs including pilot tones and data tones, wherein the pilot tones are the same for the multiple space time streams; for a first VHT-LTF of the plurality of VHT-LTFs, estimating (802, 804) a first one dimensional channel response for each of the pilot tones of the first VHT-LTF; for a second VHT-LTF of the plurality of VHT-LTFs estimating a first phase rotation in response to the first one dimensional channel response and the pilot tones of the second VHT-LTF; and applying a phase correction to the data tones of the second VHT-LTF in response to the first phase rotation, thereby generating a plurality of corrected data tones for a downstream processing.
An electric motor comprising a printed circuit board, a stator electrically connected to the printed circuit board, having more than one phase winding, a rotor, more than one winding end, extending outwards from the stator, providing electrical connections to be made to the phase windings, more than one terminal each having a pin, extending towards the printed circuit board, whereto the winding ends are attached, more than one terminal housing disposed on the stator, wherein the terminals are placed such that the pins extend outwards and whereat the terminals are attached by the winding ends and more than one socket arranged on the printed circuit board, completing the electrical connection between the printed circuit board and the stator by the ends of the pins being inserted therein, characterized by a pin support member disposed between the terminal housings and the printed circuit board by being fitted over the pins, having more than one pin hole that guides the pins, wherein the pin support member is produced from plastic material as a single piece,further characterized by one or more than one guide extension produced from plastic material, disposed on the stator, extending from between the terminal housings towards the printed circuit board and passing therethrough and one or more than one guide hole arranged on the printed circuit board and through which the guide extensions pass.
An analyzer device for elemental analysis comprising a sample supply device having an insertion opening for inserting a sample, a line for oxygen and for inert gas, a reactor for catalytic combustion of the sample, a reduction reactor provided downstream of the reactor, a water trap provided downstream of the reduction reactor, an adsorber provided downstream of the water trap, a detector provided downstream of the absorber and a logic unit for processing the data transmitted by the detector, wherein an insertion shaft leading to the reactor is provided downstream of the insertion opening in the direction of insertion, characterized in that a closing element comprising a sample receiving chamber closed on one side is pivotably mounted in the insertion shaft, wherein in a first position of the closing element the sample can be inserted through the insertion opening into the sample receiving chamber and a bottom of the sample receiving chamber closes the insertion shaft on the underside, and in a second position of the closing element, in which the closing element is pivoted relative to the first position in such a way that the sample receiving chamber is open towards the reactor and the bottom closes the reactor with respect to the insertion opening, in that the analyzer device comprises a driver and a slider, in that the closing element is non-rotatably connected to the driver and in that the slider is displaceably guided in a base plate provided with the insertion opening and is coupled to the driver in such a way that the slider leaves the insertion opening open in the first position of the closing element and closes the insertion opening in the second position of the closing element.
Hanging system comprising at least two mounting clips for mounting against a wall, as well as a hanging rail which can be coupled to the mounting clips, said mounting clips each having a rear side with which the mounting clips are in contact with the wall during use, as well as a front side which is opposite the rear side, which mounting clips 2. are each provided with two cams (11, 13) protruding from the front side, which hanging rail is provided with two spaced apart and opposite edge parts (15, 17) which can be hooked behind one of the cams of each mounting clip and can be clicked over the other cam of each mounting clip or can be clicked over both cams (11,13), characterized in that the mounting clips further each are provided with at least one nail protruding at the rear side, which nail can be pressed into the wall, parts of the front of the mounting clips on either side of the nail 2. forming pressing surfaces, and in that the mounting clips are each formed from a flat metal plate to be mounted against the wall, the cams (11, 13) and the nail being formed by plate parts bent out of the plate, on the front side the lower cam first extending away from the upper cam and then running towards the upper cam, the part extending towards the upper cam forms a guide for the lower edge part of the hanging rail for guiding this edge part over the lower cam when the hanging rail clicks on the mounting clip.
Plug-in connector part for connection to a mating plug-in connector part, having a housing part, a connector part which is to be latched to the housing part and which has a plug-in portion (510, 511) on which at least one contact element (512, 513) for plug-in connection to the mating plug-in connector part is arranged, and a cover element which is to be connected to the connector part and which has at least one line outlet for receiving an electrical line which is connected to the connector part, characterized by a frame part which is to be connected to the connector part in a latching manner and which is configured to fix the cover element relative to the connector part in a position fitted onto the connector part.
A method for differentiating service within a service mesh, the method comprising: receiving over a communications network, by a translator, a message for processing by a service mesh, the message comprising a service characteristic determining service over the communications network, and the service mesh comprising a plurality of microservices (212, 216, 220, 224), wherein the service mesh comprises a plurality of sidecars (214, 218, 222, 226), and wherein each sidecar is associated with a respective one of the plurality of microservices (212, 216, 220, 224); generating, by the translator, a ruleset for the service mesh based on the service characteristic, the ruleset comprising one of forwarding rules or load-balancing rules; transmitting, by the translator, the ruleset to at least one of the plurality of microservices (212, 216, 220, 224) by communicating with the respective sidecars (214, 218, 222, 226) associated with the microservices (212, 216, 220, 224) through a sidecar application programming interface, API, of the translator; and transmitting, by the translator, the received message to the service mesh. receiving over a communications network, by a translator, a message for processing by a service mesh, the message comprising a service characteristic determining service over the communications network, and the service mesh comprising a plurality of microservices (212, 216, 220, 224), wherein the service mesh comprises a plurality of sidecars (214, 218, 222, 226), and wherein each sidecar is associated with a respective one of the plurality of microservices (212, 216, 220, 224); generating, by the translator, a ruleset for the service mesh based on the service characteristic, the ruleset comprising one of forwarding rules or load-balancing rules; transmitting, by the translator, the ruleset to at least one of the plurality of microservices (212, 216, 220, 224) by communicating with the respective sidecars (214, 218, 222, 226) associated with the microservices (212, 216, 220, 224) through a sidecar application programming interface, API, of the translator; and transmitting, by the translator, the received message to the service mesh.
Polypeptide, protein, construct, compound or other chemical entity that comprises the amino acid sequence Alb-23 as set out in SEQ ID NO: 1 or a variant of Alb-23, wherein Alb-23 or the variant of Alb-23 is directed against human serum albumin, and one or more other amino acid sequences, binding domains, binding units or other moieties or chemical entities, suitably linked to each other either directly or optionally via one or more suitable linkers or spacers, wherein said variant of Alb-23 comprises: (i) the amino acid motif GP on positions 44 and 45; (ii) the amino acid motif SKN on positions 74 to 76; (iii) a CDR1 that is the amino acid sequence SFGMS as set out in SEQ ID NO:29; (iv) a CDR2 that is the amino acid sequence SISGSGSDTLYADSVKG as set out in SEQ ID NO:30; (v) a CDR3 that is the amino acid sequence GGSLSR as set out in SEQ ID NO:31; and that preferably also comprises (vi) a G at position 16; and/or (vii) an R at position 83 and preferably both a G at position 16 and an R at position 83; wherein said variant of Alb-23 further comprises between 1 and 7, such as between 1 and 5 further amino acid differences with the sequence given in SEQ ID NO:1; and wherein said variant of Alb-23 has improved thermal stability as determined by measuring the Tm compared to Alb-8 having the sequence: (i) the amino acid motif GP on positions 44 and 45; (ii) the amino acid motif SKN on positions 74 to 76; (iii) a CDR1 that is the amino acid sequence SFGMS as set out in SEQ ID NO:29; (iv) a CDR2 that is the amino acid sequence SISGSGSDTLYADSVKG as set out in SEQ ID NO:30; (v) a CDR3 that is the amino acid sequence GGSLSR as set out in SEQ ID NO:31; and that preferably also comprises (vi) a G at position 16; and/or (vii) an R at position 83 and preferably both a G at position 16 and an R at position 83;
An impact initiated attachment device for attachment to a target, the device comprising: a housing having a front face which abuts against the target in use, one or more fasteners, a drive mechanism (24, 25) for driving the fastener(s) from a first position within the housing to a second position protruding from the front face of the housing, and a mechanical trigger mechanism for triggering activation of the drive mechanism comprising a trigger extending from the front face of the housing and mechanically connected to the drive mechanism (24, 25) such that pressure on the trigger towards the front face of the housing causes activation of the drive mechanism (24, 25) to drive the fastener(s) from the first position to the second position. a housing having a front face which abuts against the target in use, one or more fasteners, a drive mechanism (24, 25) for driving the fastener(s) from a first position within the housing to a second position protruding from the front face of the housing, and a mechanical trigger mechanism for triggering activation of the drive mechanism comprising a trigger extending from the front face of the housing and mechanically connected to the drive mechanism (24, 25) such that pressure on the trigger towards the front face of the housing causes activation of the drive mechanism (24, 25) to drive the fastener(s) from the first position to the second position.
A process for producing a dried carboxylic acid cake, said process comprising: (a) removing, in a solid-liquid separation zone, impurities from a carboxylic acid slurry to form a slurry or cake product and a mother liquor stream, wherein said carboxylic acid slurry is produced by oxidizing, in an oxidation zone, an aromatic feedstock; and wherein said solid-liquid separation zone comprises at least one solid-liquid separator which is operated at temperatures between 50 °C and 200 °C; (b) adding solvent to said slurry or cake product in a counter current solvent wash zone to produce a carboxylic acid cake with solvent and a solvent mother liquor stream; wherein the solvent comprises an aliphatic monocarboxylic acid containing from 2 to 6 carbon atoms, or benzoic acid, and mixtures of these compounds with water; and wherein the counter current solvent wash zone comprises at least one solid-liquid separation device which is operated within a temperature range of from 40 °C to 155 °C; (c) optionally, adding water in a counter current water wash zone to said carboxylic cake with solvent to produce a water-wet carboxylic acid cake and a solvent/water by-product liquor stream; wherein said counter current wash zone comprises a solid-liquid separation device which is operated within a temperature range from 40 to 155 °C; (d) drying said water-wet carboxylic acid cake or said carboxylic acid cake with solvent in a drying zone to form said dried carboxylic acid cake. (a) removing, in a solid-liquid separation zone, impurities from a carboxylic acid slurry to form a slurry or cake product and a mother liquor stream, wherein said carboxylic acid slurry is produced by oxidizing, in an oxidation zone, an aromatic feedstock; and wherein said solid-liquid separation zone comprises at least one solid-liquid separator which is operated at temperatures between 50 °C and 200 °C; (b) adding solvent to said slurry or cake product in a counter current solvent wash zone to produce a carboxylic acid cake with solvent and a solvent mother liquor stream; wherein the solvent comprises an aliphatic monocarboxylic acid containing from 2 to 6 carbon atoms, or benzoic acid, and mixtures of these compounds with water; and wherein the counter current solvent wash zone comprises at least one solid-liquid separation device which is operated within a temperature range of from 40 °C to 155 °C; (c) optionally, adding water in a counter current water wash zone to said carboxylic cake with solvent to produce a water-wet carboxylic acid cake and a solvent/water by-product liquor stream; wherein said counter current wash zone comprises a solid-liquid separation device which is operated within a temperature range from 40 to 155 °C; (d) drying said water-wet carboxylic acid cake or said carboxylic acid cake with solvent in a drying zone to form said dried carboxylic acid cake.