mhurhangee/patent-ind-claim-en huggingface dataset:
A wireless telecommunications network node method comprising: receiving an indication of allocated resources, wherein the allocated resources are resources of an uplink channel allocated to different sets, each of said different sets comprising a number of resource blocks within subframes of the uplink channel, wherein resource blocks within a defined set are allocated for repeated transmission of RACH preamble signatures from the network node to the network; and repeatedly transmitting an identical RACH preamble signature using said defined set of resource blocks; wherein different defined sets of groups of resource blocks are optimized for different conditions; and the method further comprises selecting one of the defined sets based on conditions that the network node is experiencing. receiving an indication of allocated resources, wherein the allocated resources are resources of an uplink channel allocated to different sets, each of said different sets comprising a number of resource blocks within subframes of the uplink channel, wherein resource blocks within a defined set are allocated for repeated transmission of RACH preamble signatures from the network node to the network; and repeatedly transmitting an identical RACH preamble signature using said defined set of resource blocks; wherein different defined sets of groups of resource blocks are optimized for different conditions; and the method further comprises selecting one of the defined sets based on conditions that the network node is experiencing.
Method for manufacturing of a flavouring concentrate comprising the following steps: - preparing an aqueous starting solution from foodstuff, wherein the aqueous starting solution being a vapour condensate from fruits or vegetables, - concentrating the aqueous starting solution by osmosis using a semipermeable biomimetic membrane, and - forming a flavouring concentrate as retentate, wherein the semipermeable biomimetic membrane comprises: vesicles of liposomes or polymersomes containing at least one aquaporine protein; a thin-film composite matrix containing embedded vesicles; and a carrier layer; wherein the method is performed at a temperature in a range of 10 to 40°C; and wherein the aqueous starting solution is concentrated by the factor 20 to 1000. - preparing an aqueous starting solution from foodstuff, wherein the aqueous starting solution being a vapour condensate from fruits or vegetables, - concentrating the aqueous starting solution by osmosis using a semipermeable biomimetic membrane, and - forming a flavouring concentrate as retentate, vesicles of liposomes or polymersomes containing at least one aquaporine protein; a thin-film composite matrix containing embedded vesicles; and a carrier layer; wherein the method is performed at a temperature in a range of 10 to 40°C; and wherein the aqueous starting solution is concentrated by the factor 20 to 1000.
A mask, comprising: at least one support base having a first surface (A) and an opposing second surface (B), and having at least one opening formed therein; and at least one positioning layer only disposed on the first surface (A) of the at least one support base , the at least one positioning layer having a top surface remote from the first surface (A) of the at least one support base and a second surface opposite to said first surface (A), where at least one through opening corresponding to and communicated to the at least one opening are formed in the at least one positioning layer ; and a width of a cross section of each opening in the at least one support base reduces gradually from the second surface (B) of the at least one support base (10 10a) to the first surface (A), and a width of a cross section of each through openings in the at least one positioning layer reduces gradually from the second surface of the at least one positioning layer to the top surface of the at least one positioning layer . at least one support base having a first surface (A) and an opposing second surface (B), and having at least one opening formed therein; and at least one positioning layer only disposed on the first surface (A) of the at least one support base , the at least one positioning layer having a top surface remote from the first surface (A) of the at least one support base and a second surface opposite to said first surface (A), where at least one through opening corresponding to and communicated to the at least one opening are formed in the at least one positioning layer ; and a width of a cross section of each opening in the at least one support base reduces gradually from the second surface (B) of the at least one support base (10 10a) to the first surface (A), and a width of a cross section of each through openings in the at least one positioning layer reduces gradually from the second surface of the at least one positioning layer to the top surface of the at least one positioning layer .
A method for protecting connected car service information, the method comprising: establishing a communication connection with a mobile terminal by a connected car terminal when the connected car terminal receives a reset request for a connected car service from a user; generating backup data for the connected car service information by the connected car terminal ; transmitting the generated backup data over the established communication connection to the mobile terminal by the connected car terminal ; removing the connected car service information by the connected car terminal ; and restoring backup data received from the mobile terminal by the connected car terminal , wherein the restoring of the backup data received from the mobile terminal by the connected car terminal includes: establishing another communication connection with the mobile terminal ; and determining whether the mobile terminal is a mobile terminal specified in advance when the connected car terminal receives an authentication result indicating that the mobile terminal is normally authenticated from a telematics server . establishing a communication connection with a mobile terminal by a connected car terminal when the connected car terminal receives a reset request for a connected car service from a user; generating backup data for the connected car service information by the connected car terminal ; transmitting the generated backup data over the established communication connection to the mobile terminal by the connected car terminal ; removing the connected car service information by the connected car terminal ; and restoring backup data received from the mobile terminal by the connected car terminal , wherein the restoring of the backup data received from the mobile terminal by the connected car terminal includes: establishing another communication connection with the mobile terminal ; and determining whether the mobile terminal is a mobile terminal specified in advance when the connected car terminal receives an authentication result indicating that the mobile terminal is normally authenticated from a telematics server . establishing another communication connection with the mobile terminal ; and determining whether the mobile terminal is a mobile terminal specified in advance when the connected car terminal receives an authentication result indicating that the mobile terminal is normally authenticated from a telematics server .
An automatic needle retraction assembly comprising: a guide dilator comprising an axial bore; a hub at a proximal end of the guide dilator; a rigid guide needle slidably mounted within the guide dilator and comprising a distal piercing end, an axial bore, and a needle proximal end; a fluid triggered actuator in the hub configured to urge the needle proximally relative to the guide dilator on contact with a fluid from a first position to a second position wherein, in the first position, the distal piercing end of the needle extends out from a distal end of the guide dilator; and in the second position, the distal piercing end of the needle is retracted within the bore of the guide dilator; wherein the fluid triggered actuator comprises: an aqueous fluid expandable material selected from the group consisting of: a hydrogel, a dry compressed foam, a shape-memory alloy, and a dehydrated hydrophilic polymer; or an aqueous fluid sensitive detent positioned between the needle and guide dilator hub which detent prevents the needle from sliding proximally, and wherein the detent is configured to soften or dissolve on contact with an aqueous fluid to release the needle to slide proximally in the guide dilator. a guide dilator comprising an axial bore; a hub at a proximal end of the guide dilator; a rigid guide needle slidably mounted within the guide dilator and comprising a distal piercing end, an axial bore, and a needle proximal end; a fluid triggered actuator in the hub configured to urge the needle proximally relative to the guide dilator on contact with a fluid from a first position to a second position wherein, in the first position, the distal piercing end of the needle extends out from a distal end of the guide dilator; and in the second position, the distal piercing end of the needle is retracted within the bore of the guide dilator; wherein the fluid triggered actuator comprises: an aqueous fluid expandable material selected from the group consisting of: a hydrogel, a dry compressed foam, a shape-memory alloy, and a dehydrated hydrophilic polymer; or an aqueous fluid sensitive detent positioned between the needle and guide dilator hub which detent prevents the needle from sliding proximally, and wherein the detent is configured to soften or dissolve on contact with an aqueous fluid to release the needle to slide proximally in the guide dilator. an aqueous fluid expandable material selected from the group consisting of: a hydrogel, a dry compressed foam, a shape-memory alloy, and a dehydrated hydrophilic polymer; or an aqueous fluid sensitive detent positioned between the needle and guide dilator hub which detent prevents the needle from sliding proximally, and wherein the detent is configured to soften or dissolve on contact with an aqueous fluid to release the needle to slide proximally in the guide dilator.
A steel material having a chemical composition of, by mass%, C: greater than 0.05% to 0.2%, Mn: 1% to 3%, Si: greater than 0.5% to 1.8%, Al: 0.01% to 0.5%, N: 0.001% to 0.015%, Ti: 0.001% or more, a sum of V and Ti: greater than 0.1% to 0.25%, Cr: 0% to 0.25%, Mo: 0% to 0.35%, and a balance: Fe and impurities, the steel material comprising a steel structure being a multi-phase structure having a main phase made of ferrite of 50 area% or more, and a second phase containing one or two or more selected from a group consisting of bainite, martensite and austenite, wherein: an average nanohardness of the second phase is less than 6.0 GPa; and when a boundary where a misorientation of crystals becomes 2° or more is defined as a grain boundary, and a region surrounded with the grain boundary is defined as a crystal grain, an average grain diameter of all crystal grains in the main phase and the second phase is 3 μm or less, and a proportion of a length of small-angle grain boundaries where the misorientation is 2° to less than 15° in a length of all grain boundaries is 15% or more, the proportion of the small-angle grain boundaries is determined by conducting an ESBP analysis, and the nanohardness is a value obtained by measuring a nanohardness in a grain of each phase or structure by using nanoindentation. C: greater than 0.05% to 0.2%, Mn: 1% to 3%, Si: greater than 0.5% to 1.8%, Al: 0.01% to 0.5%, N: 0.001% to 0.015%, Ti: 0.001% or more, a sum of V and Ti: greater than 0.1% to 0.25%, Cr: 0% to 0.25%, Mo: 0% to 0.35%, and a balance: Fe and impurities, the steel material comprising a steel structure being a multi-phase structure having a main phase made of ferrite of 50 area% or more, and a second phase containing one or two or more selected from a group consisting of bainite, martensite and austenite, wherein: an average nanohardness of the second phase is less than 6.0 GPa; and when a boundary where a misorientation of crystals becomes 2° or more is defined as a grain boundary, and a region surrounded with the grain boundary is defined as a crystal grain, an average grain diameter of all crystal grains in the main phase and the second phase is 3 μm or less, and a proportion of a length of small-angle grain boundaries where the misorientation is 2° to less than 15° in a length of all grain boundaries is 15% or more, the proportion of the small-angle grain boundaries is determined by conducting an ESBP analysis, and the nanohardness is a value obtained by measuring a nanohardness in a grain of each phase or structure by using nanoindentation. an average nanohardness of the second phase is less than 6.0 GPa; and when a boundary where a misorientation of crystals becomes 2° or more is defined as a grain boundary, and a region surrounded with the grain boundary is defined as a crystal grain, an average grain diameter of all crystal grains in the main phase and the second phase is 3 μm or less, and a proportion of a length of small-angle grain boundaries where the misorientation is 2° to less than 15° in a length of all grain boundaries is 15% or more,
A cooling device for an electromagnetic interference filter , the cooling device comprising: a housing , comprising: a main body having a cavity defined by an inner wall shaped to correspond with an outermost surface of the electromagnetic interference filter , wherein the cavity is shaped to receive the electromagnetic interference filter ; one or more cooling channels surrounding at least a portion of the cavity in the main body of the housing , wherein the one or more cooling channels define one or more flow paths that are contained completely within the housing ; an inlet port ; an outlet port , wherein the one or more cooling channels fluidly connect the inlet port to the outlet port , and wherein a cooling medium is configured to flow into the inlet port , through the one or more cooling channels , and exit the housing through the outlet port ; and wherein as the cooling medium passes through the one or more cooling channels , contact between the inner wall of the housing and the outermost surface of the electromagnetic interference filter draws heat away from the electromagnetic interference filter . a main body having a cavity defined by an inner wall shaped to correspond with an outermost surface of the electromagnetic interference filter , wherein the cavity is shaped to receive the electromagnetic interference filter ; one or more cooling channels surrounding at least a portion of the cavity in the main body of the housing , wherein the one or more cooling channels define one or more flow paths that are contained completely within the housing ; an inlet port ; an outlet port , wherein the one or more cooling channels fluidly connect the inlet port to the outlet port , and wherein a cooling medium is configured to flow into the inlet port , through the one or more cooling channels , and exit the housing through the outlet port ; and wherein as the cooling medium passes through the one or more cooling channels , contact between the inner wall of the housing and the outermost surface of the electromagnetic interference filter draws heat away from the electromagnetic interference filter .
A respiratory assistance device for CPAP (continuous positive airway pressure) comprising: a respiratory interface device configured to be worn by a user and deliver a gas; a gas temperature measurement unit configured to measure a gas temperature that is a temperature of the gas; a warming unit configured to warm the gas; and a temperature change unit configured to change the gas temperature by controlling the warming unit ; wherein the temperature change unit controls the warming unit to decrease the gas temperature after a lapse of a predetermined time from start of operation of the respiratory assistance device ; characterized in that the temperature change unit controls the gas temperature to or below a core temperature that is a temperature of a deep part of the user's living body. a respiratory interface device configured to be worn by a user and deliver a gas; a gas temperature measurement unit configured to measure a gas temperature that is a temperature of the gas; a warming unit configured to warm the gas; and a temperature change unit configured to change the gas temperature by controlling the warming unit ; wherein the temperature change unit controls the warming unit to decrease the gas temperature after a lapse of a predetermined time from start of operation of the respiratory assistance device ; characterized in that the temperature change unit controls the gas temperature to or below a core temperature that is a temperature of a deep part of the user's living body.
A method of controlling a robot system including a plurality of moving robots, each assigned a cleaning area, the method comprising: identifying by one of the plurality of moving robots an urgent contaminant whose contamination degree or contamination range is greater than a predetermined reference value in the assigned cleaning area; transmitting, by the one moving robot having identified the urgent contaminant, location information on the urgent contaminant to at least one other moving robot or a predetermined electronic device; receiving a command designating an urgent cleaning area (S410) by at least one other moving robot; the at least one other moving robot from the plurality of moving robots moving to the urgent cleaning area according to a predetermined criterion based on the command (S420); performing a cleaning operation by the at least one other moving robot having moved to the urgent cleaning area (S430); and returning to its assigned cleaning area by the at least one other moving robot having moved to the urgent cleaning area when the cleaning operation is completed (S440), wherein the at least one other moving robot moving to the urgent cleaning area is a moving robot at a closest distance to the designated urgent cleaning area. identifying by one of the plurality of moving robots an urgent contaminant whose contamination degree or contamination range is greater than a predetermined reference value in the assigned cleaning area; transmitting, by the one moving robot having identified the urgent contaminant, location information on the urgent contaminant to at least one other moving robot or a predetermined electronic device; receiving a command designating an urgent cleaning area (S410) by at least one other moving robot; the at least one other moving robot from the plurality of moving robots moving to the urgent cleaning area according to a predetermined criterion based on the command (S420); performing a cleaning operation by the at least one other moving robot having moved to the urgent cleaning area (S430); and returning to its assigned cleaning area by the at least one other moving robot having moved to the urgent cleaning area when the cleaning operation is completed (S440), wherein the at least one other moving robot moving to the urgent cleaning area is a moving robot at a closest distance to the designated urgent cleaning area.
A cooling system, comprising: an information technology, IT, container including a plurality of IT chambers , each IT chamber being configured to store fluid and to receive IT equipment submerged in the fluid for immersion cooling; a fluid supply channel disposed at a bottom of the IT container to receive the fluid from a cooling unit and to supply the fluid to the IT chambers ; and a fluid return channel disposed on a top of the IT chambers to return the fluid received from the IT chambers to the cooling unit, characterized in that the cooling system further comprises a fluid acceleration channel disposed separately from the fluid return channel to return at least some of the fluid to the cooling unit in an accelerated manner; and one or more pumps disposed between at least some of the IT chambers and the fluid acceleration channel to increase a flowrate of the fluid from the corresponding IT chambers to the cooling unit via the fluid acceleration channel . an information technology, IT, container including a plurality of IT chambers , each IT chamber being configured to store fluid and to receive IT equipment submerged in the fluid for immersion cooling; a fluid supply channel disposed at a bottom of the IT container to receive the fluid from a cooling unit and to supply the fluid to the IT chambers ; and a fluid return channel disposed on a top of the IT chambers to return the fluid received from the IT chambers to the cooling unit, characterized in that the cooling system further comprises a fluid acceleration channel disposed separately from the fluid return channel to return at least some of the fluid to the cooling unit in an accelerated manner; and one or more pumps disposed between at least some of the IT chambers and the fluid acceleration channel to increase a flowrate of the fluid from the corresponding IT chambers to the cooling unit via the fluid acceleration channel .
A device for mounting a tool on a hand of a user, the device comprises a receiving part for attachment of a tool and at least one mounting member for mounting the device on one or more fingers of the hand of the user, such as two neighbouring fingers, wherein the receiving part is fixed to the mounting member, and the receiving part comprises at least one clamp for clamping a tool to the device, wherein the clamp has a closed position (h2) and an open position (h1) and wherein the clamp is configured to be operable by one or more fingers of the same hand the device is mounted on, characterized in that the receiving part further comprises at least one engagement member made of a rigid material and providing at least one moment arm attached to the clamp, such that the clamp is operable via the engagement member into the open position (h1) and the closed position (h2) by one or more fingers of the same hand the device is mounted on. wherein the receiving part is fixed to the mounting member, and the receiving part comprises at least one clamp for clamping a tool to the device, wherein the clamp has a closed position (h2) and an open position (h1) and wherein the clamp is configured to be operable by one or more fingers of the same hand the device is mounted on, characterized in that the receiving part further comprises at least one engagement member made of a rigid material and providing at least one moment arm attached to the clamp, such that the clamp is operable via the engagement member into the open position (h1) and the closed position (h2) by one or more fingers of the same hand the device is mounted on.