mhurhangee/patent-ind-claim-en huggingface dataset:
Strain Clonostachys rosea f. catenulata deposited in the All-Russian Collection of Industrial Microorganisms under the number VKPM-F1324, used to protect plants against various diseases caused by phytopathogenic fungi and bacteria, as well as a plant growth promoter and producer of metabolites, such as phytohormones and amino acids.
A method for manufacturing a handle for an electrically operated personal care implement , the method comprising the following steps: - providing a metal tube housing , the housing having a metal wall with an opening and an inner surface , the inner surface defining an inner cavity for accommodating an energy source, - providing a hard switch component comprising a frame with a recess , - attaching the frame of the hard switch component to the inner surface of the metal wall , the frame surrounding the opening and providing an undercut between the recess and the inner surface , the undercut being open towards the opening , - at least partially over-molding the opening to form a soft switch component , the soft switch component being accommodated in the undercut thereby forming with the hard switch component a switch assembly for activating the energy source, the switch assembly sealing the opening from the inner surface of the metal wall . - providing a metal tube housing , the housing having a metal wall with an opening and an inner surface , the inner surface defining an inner cavity for accommodating an energy source, - providing a hard switch component comprising a frame with a recess , - attaching the frame of the hard switch component to the inner surface of the metal wall , the frame surrounding the opening and providing an undercut between the recess and the inner surface , the undercut being open towards the opening , - at least partially over-molding the opening to form a soft switch component , the soft switch component being accommodated in the undercut thereby forming with the hard switch component a switch assembly for activating the energy source, the switch assembly sealing the opening from the inner surface of the metal wall .
A data transmission method in a wireless communication system, the method comprising: performing , by a first base station , a channel sensing, to identify whether a channel in an unlicensed frequency band is idle; transmitting , by the first base station , in a symbol where the channel sensing has completed, based on the channel being idle in the unlicensed frequency band, a first reservation signal for reserving the unlicensed frequency band for transmitting data before arrival of a next symbol for a first data transmission, the first reservation signal is transmitted via a first communication technology; and transmitting , by the first base station , the first data to a terminal in the unlicensed frequency band during the next symbol and after transmitting the first reservation signal, the first data is transmitted via a second communication technology different from the first communication technology, wherein, based on the transmission of the first reservation signal being identified by a second base station using at least one of a basic service set identifier, BSSID, a service set identifier, SSID, or an X2 interface message, included in the first reservation signal, second data is transmitted to a second terminal, by the second base station , in the next symbol arriving after the symbol transmitting the first reservation signal without transmitting an own channel reservation signal for the second base station . performing , by a first base station , a channel sensing, to identify whether a channel in an unlicensed frequency band is idle; transmitting , by the first base station , in a symbol where the channel sensing has completed, based on the channel being idle in the unlicensed frequency band, a first reservation signal for reserving the unlicensed frequency band for transmitting data before arrival of a next symbol for a first data transmission, the first reservation signal is transmitted via a first communication technology; and transmitting , by the first base station , the first data to a terminal in the unlicensed frequency band during the next symbol and after transmitting the first reservation signal, the first data is transmitted via a second communication technology different from the first communication technology, wherein, based on the transmission of the first reservation signal being identified by a second base station using at least one of a basic service set identifier, BSSID, a service set identifier, SSID, or an X2 interface message, included in the first reservation signal, second data is transmitted to a second terminal, by the second base station , in the next symbol arriving after the symbol transmitting the first reservation signal without transmitting an own channel reservation signal for the second base station .
An applicator for applying a sheet member to skin comprising: a body having a bottom surface facing the skin; and a first guide configured to guide the sheet member to a space between the skin and the bottom surface; and a second guide , wherein the sheet member is applied to the skin after being folded in the space, and on the bottom surface, one or more protrusions are provided between the first guide and the second guide . a body having a bottom surface facing the skin; and a first guide configured to guide the sheet member to a space between the skin and the bottom surface; and a second guide , wherein the sheet member is applied to the skin after being folded in the space, and
Device having - a housing , - a tubular twist grip , - a support element , - a housing part , - a printed circuit board , - an auxiliary housing part , - a switch unit , - a housing upper part , - a housing lower part and - a manual throttle twist grip having a sensor arrangement, which is mounted in the housing , for detecting the rotary motion of the tubular twist grip , further having a magnet which is operatively connected to the twist grip , further having a sensor which is fixed to the housing and is designed to detect the movement of the magnet , wherein the sensor is connected to a cable harness of the device, and having a return spring, the spring force of which is directed against the manually generated rotary motion, wherein the magnet is fixed to the support element and the support element is arranged at a distance from the twist grip , wherein the housing part is associated with the magnet and, respectively, the support element , and wherein this housing part is also designed for receiving the sensor , the printed circuit board and the end of the cable harness , wherein the auxiliary housing part is located between the housing part and the end of the twist grip and is designed to receive the switch unit , wherein furthermore the housing comprising the housing part and the auxiliary housing part is split parallel to the rotation axis of the twist grip into the housing upper part and the housing lower part which are fastened to each other and also supported on the support element . - a housing , - a tubular twist grip , - a support element , - a housing part , - a printed circuit board , - an auxiliary housing part , - a switch unit , - a housing upper part , - a housing lower part and - a manual throttle twist grip having a sensor arrangement, which is mounted in the housing , for detecting the rotary motion of the tubular twist grip , further having a magnet which is operatively connected to the twist grip , further having a sensor which is fixed to the housing and is designed to detect the movement of the magnet , wherein the sensor is connected to a cable harness of the device, and having a return spring, the spring force of which is directed against the manually generated rotary motion, wherein the magnet is fixed to the support element and the support element is arranged at a distance from the twist grip , wherein the housing part is associated with the magnet and, respectively, the support element , and wherein this housing part is also designed for receiving the sensor , the printed circuit board and the end of the cable harness , wherein the auxiliary housing part is located between the housing part and the end of the twist grip and is designed to receive the switch unit , wherein furthermore the housing comprising the housing part and the auxiliary housing part is split parallel to the rotation axis of the twist grip into the housing upper part and the housing lower part which are fastened to each other and also supported on the support element .
A method for positioning a conductor for overhead energy transport, comprising: - obtaining a conductor with an elongate core and an elongate sheath situated around the elongate core, characterised in that the method comprises the step of immobilising the elongate sheath on the elongate core at positions which, on installation, are not situated at the ends of the conductor, by means of at least two clamping pieces and/or stoppers on the conductor, wherein a tension difference is present between the core and the sheath of the conductor when the conductor is in use. - obtaining a conductor with an elongate core and an elongate sheath situated around the elongate core, characterised in that the method comprises the step of immobilising the elongate sheath on the elongate core at positions which, on installation, are not situated at the ends of the conductor, by means of at least two clamping pieces and/or stoppers on the conductor, wherein a tension difference is present between the core and the sheath of the conductor when the conductor is in use.
A communication device , comprising: a tunable circuit coupled to an antenna ; a modem to: poll a plurality of channels, each channel associated with a frequency band; and record a received signal strength indicator, RSSI, value associated with each of the plurality of channels; and a control unit to: determine a first channel having a highest RSSI value from the plurality of channels; and control the tunable circuit to tune the antenna based on a frequency of the first channel; wherein the control unit is to control the tunable circuit to match an operating frequency of the antenna to the frequency of the first channel. a tunable circuit coupled to an antenna ; a modem to: poll a plurality of channels, each channel associated with a frequency band; and record a received signal strength indicator, RSSI, value associated with each of the plurality of channels; and poll a plurality of channels, each channel associated with a frequency band; and record a received signal strength indicator, RSSI, value associated with each of the plurality of channels; and a control unit to: determine a first channel having a highest RSSI value from the plurality of channels; and control the tunable circuit to tune the antenna based on a frequency of the first channel; wherein the control unit is to control the tunable circuit to match an operating frequency of the antenna to the frequency of the first channel. determine a first channel having a highest RSSI value from the plurality of channels; and control the tunable circuit to tune the antenna based on a frequency of the first channel; wherein the control unit is to control the tunable circuit to match an operating frequency of the antenna to the frequency of the first channel.
A printer configured to print an image on a print medium (PM) based on print data that includes print dot data for each of a plurality of print lines, comprising: a print head including a plurality of heating elements (E1-E12) arranged along a direction of the print lines; and a controller configured to find the number of print dots on each print line and determine a first control mode or a second control mode as a control mode of the heating elements (E1-E12) for printing each print line based on the found number of print dots, wherein in the second control mode dividing the heating elements (E1-E12) into a plurality of second groups the controller controls the plurality of heating elements (E1-E12) to generate heat at a different timing for each second group including two or more heating elements (E1-E12), at least two of which are spaced apart, characterized in that in the first control mode dividing the heating elements (E1-E12) into a plurality of first groups along the direction of the print lines, each first group including two or more adjacent heating elements (E1-E12), the controller controls the plurality of heating elements (E1-E12) to generate heat at a different timing for each first group so that heating elements in each first group are heated concurrently. a print head including a plurality of heating elements (E1-E12) arranged along a direction of the print lines; and a controller configured to find the number of print dots on each print line and determine a first control mode or a second control mode as a control mode of the heating elements (E1-E12) for printing each print line based on the found number of print dots, wherein in the second control mode dividing the heating elements (E1-E12) into a plurality of second groups the controller controls the plurality of heating elements (E1-E12) to generate heat at a different timing for each second group including two or more heating elements (E1-E12), at least two of which are spaced apart, characterized in that in the first control mode dividing the heating elements (E1-E12) into a plurality of first groups along the direction of the print lines, each first group including two or more adjacent heating elements (E1-E12), the controller controls the plurality of heating elements (E1-E12) to generate heat at a different timing for each first group so that heating elements in each first group are heated concurrently.
A method for regulating and/or monitoring a heating apparatus for heating a fluid having flowed and/or flowing via an inlet into an in-flow section of a dialysis fluid circuit, the dialysis fluid circuit being part of a blood treatment apparatus , the dialysis fluid circuit comprising a container for receiving the fluid and a heating container for heating the fluid , wherein the method comprises the step of: - starting a heating process for heating the fluid in the heating container being in fluid communication with the container , only when the filling level of the container has reached a pre-determined filling level value (H1) at least once, in particular by a direct or indirect inflow through the inlet . the dialysis fluid circuit being part of a blood treatment apparatus , the dialysis fluid circuit comprising a container for receiving the fluid and a heating container for heating the fluid , wherein the method comprises the step of: - starting a heating process for heating the fluid in the heating container being in fluid communication with the container , only when the filling level of the container has reached a pre-determined filling level value (H1) at least once, in particular by a direct or indirect inflow through the inlet . - starting a heating process for heating the fluid in the heating container being in fluid communication with the container , only when the filling level of the container has reached a pre-determined filling level value (H1) at least once, in particular by a direct or indirect inflow through the inlet .
A catheter , comprising: a proximal segment having a supply lumen configured to receive working fluid from a heat exchange system and a return lumen configured to return working fluid to the heat exchange system; and a distal segment in fluid communication with the proximal segment and defining plural spaced apart discrete loops , each communicating with the supply lumen and each being connected to an adjacent loop by a connector segment, each loop of the plural spaced apart discrete loops having, when inflated, a wall enclosing a respective loop lumen through which the working fluid can flow and an opening formed by the wall through which fluid external to the catheter can flow, the plural spaced apart discrete loops being connected together by the connector segments, wherein each loop defines a proximal surface and a distal surface parallel to the proximal surface and oriented transversely to a long axis of the return tube. a proximal segment having a supply lumen configured to receive working fluid from a heat exchange system and a return lumen configured to return working fluid to the heat exchange system; and a distal segment in fluid communication with the proximal segment and defining plural spaced apart discrete loops , each communicating with the supply lumen and each being connected to an adjacent loop by a connector segment, each loop of the plural spaced apart discrete loops having, when inflated, a wall enclosing a respective loop lumen through which the working fluid can flow and an opening formed by the wall through which fluid external to the catheter can flow, the plural spaced apart discrete loops being connected together by the connector segments, wherein each loop defines a proximal surface and a distal surface parallel to the proximal surface and oriented transversely to a long axis of the return tube.
A fuel dispensing apparatus for delivering fuel from a fuel source , comprising: a flow conduit defining a fluid flow path from a fuel source to an outlet where fuel is dispensed; a particle detector configured to detect at least one fuel quality characteristic in real time as the fuel passes through the flow conduit ; and an electronic control system in communication with the particle detector and configured to receive fuel quality sensor information corresponding to the at least one detected fuel quality characteristic in real time, characterised in that the electronic control system is further configured to: determine, based on the received fuel quality sensor information, a particle ratio defined as an approximate ratio of a total measurement of water and particulate per unit volume of fuel; determine, based on the received fuel quality sensor information, a first water characteristic indicative of a presence or absence of a threshold measurement of water per unit volume of fuel; determine, based on the first water characteristic and on the particle ratio, whether to initiate at least one corrective action; and automatically initiate the at least one corrective action in response to a determination to initiate the at least one corrective action. a flow conduit defining a fluid flow path from a fuel source to an outlet where fuel is dispensed; a particle detector configured to detect at least one fuel quality characteristic in real time as the fuel passes through the flow conduit ; and an electronic control system in communication with the particle detector and configured to receive fuel quality sensor information corresponding to the at least one detected fuel quality characteristic in real time, characterised in that the electronic control system is further configured to: determine, based on the received fuel quality sensor information, a particle ratio defined as an approximate ratio of a total measurement of water and particulate per unit volume of fuel; determine, based on the received fuel quality sensor information, a first water characteristic indicative of a presence or absence of a threshold measurement of water per unit volume of fuel; determine, based on the first water characteristic and on the particle ratio, whether to initiate at least one corrective action; and automatically initiate the at least one corrective action in response to a determination to initiate the at least one corrective action. determine, based on the received fuel quality sensor information, a particle ratio defined as an approximate ratio of a total measurement of water and particulate per unit volume of fuel; determine, based on the received fuel quality sensor information, a first water characteristic indicative of a presence or absence of a threshold measurement of water per unit volume of fuel; determine, based on the first water characteristic and on the particle ratio, whether to initiate at least one corrective action; and automatically initiate the at least one corrective action in response to a determination to initiate the at least one corrective action.
Multi-crown gas burner with an injector holder module that can be attached to a cooking hob and with a flame-spreader module positioned above said injector holder module, said flame-spreader module comprising an external annular portion and a circular internal portion which is separated from the external annular portion by a substantially annular cavity , wherein said injector holder module comprises: - at least one first injector and at least one first substantially horizontal venturi duct facing said at least one first injector (26, 28, - a first chamber in fluid communication with said at least one first venturi duct and with a first set of doors provided in said external annular portion , so as to generate at least one first crown of main flames , - a second injector and a second substantially horizontal venturi duct facing said second injector , - an area in fluid communication with said second venturi duct and with at least one passage provided in said circular internal portion for the generation of at least one simmering flame , said burner being characterized by the fact that said at least one first chamber , which is fed by said at least one first venturi duct , communicates fluidly with a second series of doors provided in said circular internal portion of the flame-spreader module , so as to generate a second crown of main flames . - at least one first injector and at least one first substantially horizontal venturi duct facing said at least one first injector (26, 28, - a first chamber in fluid communication with said at least one first venturi duct and with a first set of doors provided in said external annular portion , so as to generate at least one first crown of main flames , - a second injector and a second substantially horizontal venturi duct facing said second injector , - an area in fluid communication with said second venturi duct and with at least one passage provided in said circular internal portion for the generation of at least one simmering flame , said burner being characterized by the fact that said at least one first chamber , which is fed by said at least one first venturi duct , communicates fluidly with a second series of doors provided in said circular internal portion of the flame-spreader module , so as to generate a second crown of main flames .