mhurhangee/patent-ind-claim-en huggingface dataset:
An atomizing generator , comprising a housing provided with an atomizing cavity therein, an atomizing element capable of atomizing a liquid being provided in the atomizing cavity , an air inlet , a liquid inlet , and a mist outlet which are communicated with the atomizing cavity being provided on the housing , wherein a communicating cavity which is independent of the atomizing cavity is formed in the housing , the atomizing cavity is communicated with the communicating cavity through a first communication hole , the mist outlet is communicated with the communicating cavity through a second communication hole , a valve mechanism is further provided in the communicating cavity, and the valve mechanism is configured to be capable of sealing the first communication hole and/or the second communication hole , and wherein the housing comprises a housing body and a first housing cover , wherein a transverse rib and a vertical rib are provided on the first housing cover , the transverse rib is fixedly connected to three sequentially adjacent inner side surfaces of the first housing cover , and the vertical rib is fixedly connected to two opposite ones of the three sequentially adjacent inner side surfaces, so that the transverse rib , the vertical rib and the three inner side surfaces jointly enclose the communicating cavity, characterized in that the first communication hole and the second communication hole are arranged on the transverse rib , the mist outlet is disposed at a bottom of the housing , the atomizing generator further comprises a connecting pipe , and the mist outlet is connected to the second communication hole through the connecting pipe . wherein a communicating cavity which is independent of the atomizing cavity is formed in the housing , the atomizing cavity is communicated with the communicating cavity through a first communication hole , the mist outlet is communicated with the communicating cavity through a second communication hole , a valve mechanism is further provided in the communicating cavity, and the valve mechanism is configured to be capable of sealing the first communication hole and/or the second communication hole , and wherein the housing comprises a housing body and a first housing cover , wherein a transverse rib and a vertical rib are provided on the first housing cover , the transverse rib is fixedly connected to three sequentially adjacent inner side surfaces of the first housing cover , and the vertical rib is fixedly connected to two opposite ones of the three sequentially adjacent inner side surfaces, so that the transverse rib , the vertical rib and the three inner side surfaces jointly enclose the communicating cavity, characterized in that the first communication hole and the second communication hole are arranged on the transverse rib , the mist outlet is disposed at a bottom of the housing , the atomizing generator further comprises a connecting pipe , and the mist outlet is connected to the second communication hole through the connecting pipe .
A hot melt adhesive composition comprising: A1) a styrene-butadiene-styrene triblock copolymer, wherein a1) a content of the styrene-based unit is 30 to 50 wt%, a2) a diblock content is at least 55 % by weight, and a3) a melt flow index measured according to ASTM D1238 at 190°C/5 kg is 30 g/10 min or more; A2) a styrene-isoprene-styrene triblock copolymer, wherein a21) a content of the styrene-based unit is 30 to 50 wt%, a22) a diblock content is less than 5 % by weight,and a23) a melt flow index measured according to the ASTM D1238 at 190°C/5 kg of 30 to 50 g/10 min; B) a tackifier; and C) a plasticizing oil, wherein the hot melt adhesive composition has a softening point measured according to the ASTM D36 standard of 85 °C or higher. A1) a styrene-butadiene-styrene triblock copolymer, wherein a1) a content of the styrene-based unit is 30 to 50 wt%, a2) a diblock content is at least 55 % by weight, and a3) a melt flow index measured according to ASTM D1238 at 190°C/5 kg is 30 g/10 min or more; A2) a styrene-isoprene-styrene triblock copolymer, wherein a21) a content of the styrene-based unit is 30 to 50 wt%, a22) a diblock content is less than 5 % by weight,and a23) a melt flow index measured according to the ASTM D1238 at 190°C/5 kg of 30 to 50 g/10 min; B) a tackifier; and C) a plasticizing oil, wherein the hot melt adhesive composition has a softening point measured according to the ASTM D36 standard of 85 °C or higher.
A composition comprising a dendritic cell-targeting lentiviral vector particle wherein the particle comprises a lentiviral vector genome comprising a polynucleotide sequence encoding IL-12, for use in the treatment of cancer wherein the composition is administered intratumorally.
An information transmission method, wherein the method comprises: obtaining , by a control device, a second universal serial bus video class UVC port and a second virtual network port based on configuration of a universal serial bus USB port of the control device; determining , by the control device, address information of a camera device, wherein a first UVC port and a first virtual network port are configured on the camera device, and the first UVC port and the first virtual network port are obtained based on configuration of a USB port of the camera device; sending , by the control device, the address information to the camera device through a UVC channel, wherein the UVC channel is established based on the first UVC port and the second UVC port; and establishing , by the control device and the camera device, a bidirectional transmission channel based on the first virtual network port, the second virtual network port, and the address information. obtaining , by a control device, a second universal serial bus video class UVC port and a second virtual network port based on configuration of a universal serial bus USB port of the control device; determining , by the control device, address information of a camera device, wherein a first UVC port and a first virtual network port are configured on the camera device, and the first UVC port and the first virtual network port are obtained based on configuration of a USB port of the camera device; sending , by the control device, the address information to the camera device through a UVC channel, wherein the UVC channel is established based on the first UVC port and the second UVC port; and establishing , by the control device and the camera device, a bidirectional transmission channel based on the first virtual network port, the second virtual network port, and the address information.
A CCL17 signalling antagonist for use in treating inflammatory pain in a subject, wherein the CCL17 signalling antagonist is an antibody to CCL17 or CCL17 receptor or an antigen-binding fragment thereof or a soluble CCL17 receptor or a CCL17 binding fragment thereof, wherein the CCL17 receptor is CCR4.
A recombinant microorganism engineered to express a nucleic acid sequence encoding a CYP153A-reductase hybrid fusion polypeptide that comprises the sequence of SEQ ID NO: 6 that is modified to comprise at least one mutation at an amino acid position selected from the group consisting of 27, 141, 178, 309, 407, and 415.
An assay for the determination of the copeptin level in a sample, wherein the assay has a total assay imprecision of 20 % coefficient of variation (CV) at a concentration below 2.2 pmol/L Copeptin and a lower than 20% coefficient of variation (CV) at normal range-concentrations above that concentration, and/or 10 % coefficient of variation (CV) at a concentration below 9 pmol/l Copeptin and a lower than 10% coefficient of variation (CV) at normal range-concentrations above that concentration, wherein the assay comprises two anti-copeptin antibodies, wherein one of the antibodies is a monoclonal antibody, which binds an epitope comprised in a peptide representing positions 132-147 of pre-pro-vasopressin, and a polyclonal anti-copeptin antibody.
Apparatus for cooking sheet of pasta dough , of the type comprising an external framework , with vertical uprights and isolation walls for sustaining and supporting the means constituting the machine; cooking means comprising at least one steel cooking tank , inside said framework , and adapted to contain cooking water, at least one transport system for picking up and conveying the sheet of pasta dough to be immersed in the cooking tank ; said transport and conveyance system identifies two advancement surfaces and in which the first upper surface is adapted to carry the sheet of pasta dough in advancement and immersion in the tank , while the other lower surface is external and actuates the empty return phase below said tank ; and completes a closed-loop path on respective wheels and , one of which serves as driving means for a pair of catenaries ; the wheels and are placed at the start and end of the cooker ; said transport and conveyance system being formed by a series of rods/bars spaced from each other, so as to form the two advancement surfaces and , and arranged transverse to the advancement of the sheet of pasta dough in the tank characterized in that said catenaries are arranged longitudinally and on the external sides of the tank ; and wherein a. A transmission system for said rods/bars and sheet of pasta dough is provided outside the cooking tank; b. A pressure element system maintains said sheet of pasta dough in position, preventing it from freely floating. a. A transmission system for said rods/bars and sheet of pasta dough is provided outside the cooking tank; b. A pressure element system maintains said sheet of pasta dough in position, preventing it from freely floating.
A method of receiving configuration data from a first wireless communication network by a user equipment, the method comprising: receiving a message from a second wireless communication network , wherein: the message includes the configuration data received by the second wireless communication network from the first wireless communication network; the configuration data is secured based on at least one first key, and includes a first message authentication code, MAC, of the configuration data generated by the first wireless communication network based on the at least one first key; and the message is secured based on at least one second key; extracting the configuration data from the message at least in part based on the at least one second key; determining whether the configuration data has been altered at least in part based on the at least one first key, by generating a second MAC of the configuration data based on the at least one first key, and determining whether the first MAC and the second MAC match; and applying the configuration data in response to determining that the configuration data has not been altered. receiving a message from a second wireless communication network , wherein: the message includes the configuration data received by the second wireless communication network from the first wireless communication network; the configuration data is secured based on at least one first key, and includes a first message authentication code, MAC, of the configuration data generated by the first wireless communication network based on the at least one first key; and the message is secured based on at least one second key; extracting the configuration data from the message at least in part based on the at least one second key; determining whether the configuration data has been altered at least in part based on the at least one first key, by generating a second MAC of the configuration data based on the at least one first key, and determining whether the first MAC and the second MAC match; and the message includes the configuration data received by the second wireless communication network from the first wireless communication network; the configuration data is secured based on at least one first key, and includes a first message authentication code, MAC, of the configuration data generated by the first wireless communication network based on the at least one first key; and the message is secured based on at least one second key; extracting the configuration data from the message at least in part based on the at least one second key; determining whether the configuration data has been altered at least in part based on the at least one first key, by generating a second MAC of the configuration data based on the at least one first key, and determining whether the first MAC and the second MAC match; and applying the configuration data in response to determining that the configuration data has not been altered.
A method of sealing and monitoring a pipeline , comprising: conveying a pipe isolation device into the inlet section of a pipe, the pipe isolation device having a carrier , a primary sealing head , and a secondary sealing head ; engaging the pipe isolation device to block flow through the pipeline , wherein engaging the pipe isolation device forms a live pipe zone disposed on a pressurized side of the primary sealing head , an isolated zone disposed between the primary sealing head and the secondary sealing head , and a zero-energy zone disposed on a downstream side of the secondary sealing head ; and measuring data values with a plurality of sensors with a means for transmitting acquired data to at least one data acquisition device , wherein the plurality of sensors comprise a live pipe zone sensor configured to measure conditions of fluid in the live pipe zone , an isolated zone sensor configured to measure conditions of fluid in the isolated zone , and a zero-energy zone sensor configured to measure conditions of fluid in the zero-energy zone . conveying a pipe isolation device into the inlet section of a pipe, the pipe isolation device having a carrier , a primary sealing head , and a secondary sealing head ; engaging the pipe isolation device to block flow through the pipeline , wherein engaging the pipe isolation device forms a live pipe zone disposed on a pressurized side of the primary sealing head , an isolated zone disposed between the primary sealing head and the secondary sealing head , and a zero-energy zone disposed on a downstream side of the secondary sealing head ; and measuring data values with a plurality of sensors with a means for transmitting acquired data to at least one data acquisition device , wherein the plurality of sensors comprise a live pipe zone sensor configured to measure conditions of fluid in the live pipe zone , an isolated zone sensor configured to measure conditions of fluid in the isolated zone , and a zero-energy zone sensor configured to measure conditions of fluid in the zero-energy zone .
A backpack with a carrying system, comprising an ergonomic back plate which is substantially covering the entire back of a user; a first carrying strap adapted to extend from a first position (P1) of an upper section of said back plate over a first shoulder of a user substantially diagonally downwards towards solar plexus of said user; a second carrying strap adapted to extend from a second position (P2) of said upper section of said back plate over a second shoulder of said user substantially diagonally downwards towards solar plexus of said user; a third carrying strap adapted to extend from a first position (P3) of a lower section of said back plate under a first arm of said user substantially diagonally upwards towards solar plexus of said user; and a fourth carrying strap adapted to extend from a second position (P4) of said lower section of said back plate under a second arm of said user substantially diagonally upwards towards solar plexus of said user; wherein one of said carrying straps is provided with a connecting body which is fixated at its free end, and each one of the remaining carrying straps are provided with a fastening body which is fixated at its free end, wherein said connecting body is adapted to connect said respective fastening body ; and wherein each one of said fastening bodies are pressed into the connecting body and locked there, and wherein said connecting body comprises several buttons to be able to disengage the three carrying straps' fastening bodies from the connecting body so that the backpack may be disengaged from the user, wherein two of said fastening bodies are adapted to be connected in a common recess in said connecting body .
A method for determining the actual position of a track relative to a fixed point , located in a lateral vicinity of the track , by means of a registering device , mobile on the track , on which a stereo camera system is arranged, wherein the position of the fixed point relative to the track is surveyed by evaluation of an image pair, wherein the registering device is moved along the track , during which image pairs of the lateral vicinity of the track are continuously recorded by means of the stereo camera system , in a search procedure the fixed point is searched in the continuously recorded image pairs by means of a pattern recognition process carried out in an automatized way in an evaluation device , and that in a next method step - upon identification of a fixed point - the position of the fixed point relative to the track is determined by means of photogrammetry.
A method for determining the presence of one or more analytes in a soil sample, a sample of food stuff, or a biological sample, the method comprising: a) extraction and purification of the one or more analytes from the test sample with one or more of solid phase extraction, supported liquid extraction (SLE), and liquid liquid extraction (LLE); b) derivatization of the one or more analytes with a crown-ether derivatizing agent comprising a crown-ether, a connector, and an analyte-binding functional group, wherein the derivatizing agent is a compound that can react with primary amino group, and/or a phenolic hydroxy group, and/or a primary alcohol group, and/or a aryl or alkyl thiol group, a cis-diene group, a carboxylic acid group, a ketone group, or an aldehyde group, present in the one or more analytes; c) detection of the derivatized one or more analytes using liquid chromatography and tandem mass spectrometry, wherein ammonium adducts of the derivatized one or more analytes are identified as multiple reaction monitoring transitions. a) extraction and purification of the one or more analytes from the test sample with one or more of solid phase extraction, supported liquid extraction (SLE), and liquid liquid extraction (LLE); b) derivatization of the one or more analytes with a crown-ether derivatizing agent comprising a crown-ether, a connector, and an analyte-binding functional group, wherein the derivatizing agent is a compound that can react with primary amino group, and/or a phenolic hydroxy group, and/or a primary alcohol group, and/or a aryl or alkyl thiol group, a cis-diene group, a carboxylic acid group, a ketone group, or an aldehyde group, present in the one or more analytes; c) detection of the derivatized one or more analytes using liquid chromatography and tandem mass spectrometry, wherein ammonium adducts of the derivatized one or more analytes are identified as multiple reaction monitoring transitions.
A communication method for a mobile communication system comprising selecting, by a Mobility Management Entity, MME, that performs mobility management of a communication terminal, UE , a Serving Gateway for control plane, SGW-C, and a Packet Data Network Gateway for control plane, PGW-C, [40 or 41] that process control plane data related to the UE ; sending, after having acquired information from a management entity indicating that an SGW-U and a PGW-U are co-located, by the MME , a Create Session Request message including an indication flag informing the SGW-C that the SGW-U and the PGW-U are co-located to the SGW-C and the PGW-C [40 or 41]; and selecting, by the SGW-C , the Serving Gateway for user plane, SGW-U, [12 or 22] that processes user plane data related to the UE , based on the indication flag included in the Create Session Request message.
An electrolytic aluminum foil (F), wherein both surfaces of the foil have L* values of 86.00 or more in the L*a*b* color space (SCI method), obtained by a method for producing an electrolytic aluminum foil (F), comprising applying a current between a cathode drum partially immersed in a plating solution (L) and an anode plate immersed in the plating solution (L) to form an aluminum film on the surface of the cathode drum , and then separating, from the cathode drum , the aluminum film raised from the liquid surface by rotating the cathode drum , wherein the dew point of a treatment atmosphere at the time of the separation of the aluminum film from the cathode drum to give the electrolytic aluminum foil (F) is controlled to be -50.0°C or less.
Elevator safety system comprising: a plurality of door safety units , each door safety unit assigned to an elevator hoistway door and configured for monitoring a condition of the assigned elevator hoistway door ; a communication bus connecting the plurality of door safety units ; a control unit connected to the communication bus for allowing communication between the plurality of door safety units and the control unit ; and at least one position sensor configured for providing information about the current position of an elevator car within a hoistway ; characterized in that the control unit is configured for polling door safety units included in a subset (S1, S2) of the door safety units which are located within a predetermined distance (D1, D2) from the current position of the elevator car ; and for polling door safety units which are not included in said subset (S1, S2) less frequently or not at all. a plurality of door safety units , each door safety unit assigned to an elevator hoistway door and configured for monitoring a condition of the assigned elevator hoistway door ; a communication bus connecting the plurality of door safety units ; a control unit connected to the communication bus for allowing communication between the plurality of door safety units and the control unit ; and at least one position sensor configured for providing information about the current position of an elevator car within a hoistway ; characterized in that the control unit is configured for polling door safety units included in a subset (S1, S2) of the door safety units which are located within a predetermined distance (D1, D2) from the current position of the elevator car ; and for polling door safety units which are not included in said subset (S1, S2) less frequently or not at all. for polling door safety units included in a subset (S1, S2) of the door safety units which are located within a predetermined distance (D1, D2) from the current position of the elevator car ; and for polling door safety units which are not included in said subset (S1, S2) less frequently or not at all.