mhurhangee/patent-ind-claim-en huggingface dataset:
A burner group for a cooking device comprising a burner body configured to generate flames from flammable gases being burned, for heating a cooking vessel placed thereon, the burner group further comprising - an inner mixing chamber for feeding an inner flame circle, configured to mix gas and ambient air, - at least one vertical injector for delivering gas to the inner mixing chamber , - a first outer mixing chamber and a second outer mixing chamber for feeding an outer flame circle, that are disposed on the burner body , and wherein gas and ambient air are mixed, - a first horizontal injector for delivering gas to the first outer mixing chamber , - a second horizontal injector for delivering gas to the first outer mixing chamber , - a burner head that is disposed on the burner body , for delivering flames to the base of a cooking vessel through holes arranged around the burner head and at least one burner cap that is disposed on the burner head , characterized in that the first horizontal injector and the second horizontal injector are oppositely arranged on the burner body , - a first Venturi channel for sending the gas delivered from the first horizontal injector to the first outer mixing chamber and a second Venturi channel for sending the gas delivered from the second horizontal injector to the second outer mixing chamber , wherein the first and second Venturi channels are oppositely arranged. - an inner mixing chamber for feeding an inner flame circle, configured to mix gas and ambient air, - at least one vertical injector for delivering gas to the inner mixing chamber , - a first outer mixing chamber and a second outer mixing chamber for feeding an outer flame circle, that are disposed on the burner body , and wherein gas and ambient air are mixed, - a first horizontal injector for delivering gas to the first outer mixing chamber , - a second horizontal injector for delivering gas to the first outer mixing chamber , - a burner head that is disposed on the burner body , for delivering flames to the base of a cooking vessel through holes arranged around the burner head and at least one burner cap that is disposed on the burner head , - a first Venturi channel for sending the gas delivered from the first horizontal injector to the first outer mixing chamber and a second Venturi channel for sending the gas delivered from the second horizontal injector to the second outer mixing chamber , wherein the first and second Venturi channels are oppositely arranged.
A method executed in a first wireless terminal for transmitting a control signal enabling device-to-device, D2D, discovery, wherein the control signal is transmitted over a data channel and carries an identity associated with the first wireless terminal, the method comprising the following steps: - scrambling, by hashing (S1) the control signal, taking a time stamp used for the control signal transmission as one input parameter; - encoding (S2) the hashed control signal; - scrambling (S3) the encoded signal using a scrambling sequence not dependent on terminal specific parameters; and - transmitting (S4) the scrambled encoded signal. - scrambling, by hashing (S1) the control signal, taking a time stamp used for the control signal transmission as one input parameter; - encoding (S2) the hashed control signal; - scrambling (S3) the encoded signal using a scrambling sequence not dependent on terminal specific parameters; and - transmitting (S4) the scrambled encoded signal.
A nozzle structure for a hydrogen gas burner apparatus, comprising an outer pipe , an inner pipe disposed concentrically with the outer pipe , and a stabilizer configured to throttle a space between the outer pipe and the inner pipe , wherein the inner pipe comprises an inner pipe end part with an axial opening hole and a circumferential opening hole formed therein, the axial opening hole penetrating in an axial direction of the inner pipe , the circumferential opening hole penetrating in a radial direction of the inner pipe , the nozzle structure is configured such that a hydrogen gas flows through the inner pipe , the circumferential opening hole is configured to let the hydrogen gas flow out from the inner pipe in the radial direction of the inner pipe , the axial opening hole is configured to let hydrogen gas flow out from the inner pipe in the axial direction of the inner pipe , and the nozzle structure is configured such that an oxygen-containing gas flows between the outer pipe and the stabilizer , characterized in that a ratio S2/S1 between a cross-sectional area S1 of the axial opening hole and a cross-sectional area S2 of the circumferential opening hole is equal to or lower than 50%, and a ratio S3/S4 between a cross-sectional area S4 of a space between the inner pipe and the outer pipe and a cross-sectional area S3 of a space between an outer edge of the stabilizer and the outer pipe is equal to or lower than 45%.
A composition useful for pre-treatment in waterless tanning, wherein the said composition comprising: a) 90 to 95% (v/v) of an organic acid having carbon chain length in the range of C1 to C3 with transparent appearance; b) 3 to 8% (v/v) of a primary alcohol having carbon chain length in the range of C1 to C3; and c) 2 to 5% (v/v) of a non-ionic surfactant. a) 90 to 95% (v/v) of an organic acid having carbon chain length in the range of C1 to C3 with transparent appearance; b) 3 to 8% (v/v) of a primary alcohol having carbon chain length in the range of C1 to C3; and c) 2 to 5% (v/v) of a non-ionic surfactant.
A method for controlling a super capacitor module for a vehicle with a high voltage power source , wherein the super capacitor module comprises: a super capacitor , high power control electronics for controlling and actuating charging of the super capacitor , a high-powered DC-DC converter connected to super capacitor and adapted to be connected to a low voltage power supply system , a voltage comparison circuit connected to the super capacitor and adapted to be connected to a low voltage power source , the super capacitor module being adapted to be connected to at least one Electric Control Units (ECU) for a vehicle and/or a starter motor for a vehicle, wherein the method comprises the steps of: detecting (S1) that a low voltage power source is attached to the super capacitor module , in response to detecting that a low voltage power source is attached to the super capacitor module , operating (S2) the high-power control electronics so as to choose charging intervals of the super capacitor so that the voltage of the super capacitor is above the nominal voltage of the low voltage power source , detecting (S3) that a low voltage power source is not attached to the super capacitor module , detecting (S4) that at least one ECU is connected to the super capacitor module , in response to not detecting that a low voltage power source is attached to the super capacitor module and detecting that an ECU is connected to the super capacitor module , operating (S5) the high-power control electronics so as to choose charging intervals of the super capacitor within allowable intervals for the at least one ECU , detecting (S6) that a starter motor is not attached to the super capacitor module , in response to not detecting that a starter motor is attached to the super capacitor module , utilizing (S7) the high-powered DC-DC circuit to convert high voltage power from the high voltage power source to low voltage and supplying the low voltage to the low voltage supply system .
An oil gel capsule comprising: an oil gel comprising an oil and a gelator; and a surfactant bonded to the oil gel, wherein the oil is an engine oil, the gelator is 12-hydroxyoctadecanoic acid, and a content of the 12-hydroxyoctadecanoic acid is 1 to 10 wt% based on a total weight of the engine oil, wherein the oil gel has a phase transition temperature at which the oil gel in a gel state is liquefied in a liquid state or the oil gel in a liquid state gels into the oil gel in a gel state of 60°C or more and 70°C or less, and wherein the oil gel capsules have a size of 0.1 μm or more and 1 μm or less. an oil gel comprising an oil and a gelator; and a surfactant bonded to the oil gel, wherein the oil is an engine oil, the gelator is 12-hydroxyoctadecanoic acid, and a content of the 12-hydroxyoctadecanoic acid is 1 to 10 wt% based on a total weight of the engine oil, wherein the oil gel has a phase transition temperature at which the oil gel in a gel state is liquefied in a liquid state or the oil gel in a liquid state gels into the oil gel in a gel state of 60°C or more and 70°C or less, and wherein the oil gel capsules have a size of 0.1 μm or more and 1 μm or less.
Device for heating a fluid by means of electrical energy, wherein a cylindrical housing is provided with an inlet and an outlet for the fluid, and the inlet is connected to the outlet via a flow channel for the fluid, which extends inside the housing and has a spiral-shaped flow channel section which winds inwards around the cylinder axis of the housing with decreasing distance from the cylinder axis and is formed by a wall arranged perpendicularly between a cover plate and a bottom plate of the housing , which wall is provided with an electrical heating element designed as a web-shaped heating element for heating the flowing fluid, characterized in that the wall additionally forms a spiral-shaped flow channel section which winds outwardly about the cylinder axis of the housing with increasing distance from the cylinder axis, wherein the wall, in a central region of the interior of the housing, defines an end region closing the inwardly winding flow channel section , which end region opens into the outlet , and defines an end region closing the outwardly winding flow channel section , into which the inlet opens, and the outwardly winding flow channel section opens into the inwardly winding flow channel section in a section of the wall closest to the inner wall of the housing via a reversal region formed by a free end of the wall, wherein the wall is formed by the heating element of web-shaped design, which is provided with PTC resistance elements, and is designed as a boundary surface between the outwardly winding flow channel section and the inwardly winding flow channel section .
An immunogenic composition comprising an adjuvant, wherein the adjuvant is a bisphosphonic acid compound selected from the group consisting of zoledronic acid, pamidronic acid, alendronic acid, ibandronic acid, neridronic acid, risedronic acid, olpadronic acid, and minodronic acid, or a pharmaceutically acceptable salt, or solvate thereof.
Extremity dummy which forms a lower-leg dummy , comprising a first and a second dummy section , which are connected in an articulated manner by a first joint element that has at least one axis of rotation (G1, G2) and that represents the ankle joint, wherein a. the first dummy section represents a lower-leg section of a lower-leg extremity, and b. the second dummy section represents a foot section, in particular a metatarsal section and/or rear foot section, of a lower-leg extremity, characterized in that the first joint element represents the upper and lower ankle joint, and the mobility in the physiological human joint can be simulated by coupling of at least two joint axes in the first joint element, wherein each of the plurality of axes of rotation (G1, G2) of the joint element is assigned a sensor by which the angular position or change in angle of the connected dummy sections with respect to the assigned axis of rotation (G1, G2) can be measured, and the first dummy section representing the lower-leg section has, at its upper end, a force introduction connection via which a force (T) can be introduced into the dummy section and by which the dummy section can be twisted about its axial extent. a. the first dummy section represents a lower-leg section of a lower-leg extremity, and b. the second dummy section represents a foot section, in particular a metatarsal section and/or rear foot section, of a lower-leg extremity,
An excitation system , comprising: a converter arranged to convert an AC current to a DC current; a switching device for short circuiting an AC input of the converter , the AC input comprising multiple phases ; and an arc detection device configured to detect an arc fault in the excitation system and to actuate the switching device upon detecting the arc fault; wherein the switching device comprises an irreversible switch that is a thyristor arranged to provide a conduction path, when actuated by the arc detection device and to short-circuit the multiple phases of the AC input such that the arc fault is quenched, wherein the conduction path is provided by melting and/or destroying at least a part of the thyristor, thereby forming an alloy. a converter arranged to convert an AC current to a DC current; a switching device for short circuiting an AC input of the converter , the AC input comprising multiple phases ; and an arc detection device configured to detect an arc fault in the excitation system and to actuate the switching device upon detecting the arc fault; wherein the switching device comprises an irreversible switch that is a thyristor arranged to provide a conduction path, when actuated by the arc detection device and to short-circuit the multiple phases of the AC input such that the arc fault is quenched, wherein the conduction path is provided by melting and/or destroying at least a part of the thyristor, thereby forming an alloy.
A network node apparatus comprising: control circuitry to obtain association information that includes an association between one or more first antenna ports that carry Enhanced Physical Downlink Control Channel, EPDCCH, data and one or more second antenna ports that carry Physical Downlink Shared Channel, PDSCH, data; and transmit circuitry in communication with the control circuitry to: transmit the association information to a Machine Type Communication, MTC, User Equipment, UE, wherein the MTC UE is configured to estimate, based at least on the association information and a EPDCCH reference signal received on the one or more first antenna ports, a channel associated with the one or more second antenna ports for PDSCH data; transmit, to the MTC UE, EPDCCH data via at least one of the one or more first antenna ports during a first sub-frame, and transmit, to the MTC UE, the PDSCH data via at least one of the one or more second antenna ports during a second sub-frame that is after the first sub-frame. control circuitry to obtain association information that includes an association between one or more first antenna ports that carry Enhanced Physical Downlink Control Channel, EPDCCH, data and one or more second antenna ports that carry Physical Downlink Shared Channel, PDSCH, data; and transmit circuitry in communication with the control circuitry to: transmit the association information to a Machine Type Communication, MTC, User Equipment, UE, wherein the MTC UE is configured to estimate, based at least on the association information and a EPDCCH reference signal received on the one or more first antenna ports, a channel associated with the one or more second antenna ports for PDSCH data; transmit, to the MTC UE, EPDCCH data via at least one of the one or more first antenna ports during a first sub-frame, and transmit, to the MTC UE, the PDSCH data via at least one of the one or more second antenna ports during a second sub-frame that is after the first sub-frame. transmit the association information to a Machine Type Communication, MTC, User Equipment, UE, wherein the MTC UE is configured to estimate, based at least on the association information and a EPDCCH reference signal received on the one or more first antenna ports, a channel associated with the one or more second antenna ports for PDSCH data; transmit, to the MTC UE, EPDCCH data via at least one of the one or more first antenna ports during a first sub-frame, and transmit, to the MTC UE, the PDSCH data via at least one of the one or more second antenna ports during a second sub-frame that is after the first sub-frame.
Heating device for heating a liquid, in particular a liquid in a tank for storing the liquid, comprising at least one heating element and at least one thermally conductive body , preferably a thermally conductive body which is manufactured from aluminium, characterized in that the heating element consists of an electrically conductive plastics material, and in that the electrically conductive plastics material is electrically conductively and thermally conductively coupled to the thermally conductive body , wherein the heating element is arranged in a sheet-like manner between at least two thermally conductive bodies , and wherein the heating element connects the two thermally conductive bodies to one another in a mechanically fixed manner.
An apparatus for treating a tumor in a subject's body and facilitating delivery of a substance across cell membranes of the cancer cells in the subject's body, the apparatus comprising: an AC voltage generator configured to operate at a first frequency between 50 and 500 kHz and a second frequency between 50 and 500 kHz, the first frequency for increasing permeability of the cell membranes of the cancer cells, the second frequency for reducing viability of the cancer cells, the second frequency being different from the first frequency, wherein the AC voltage generator has a control input and is configured to output the first frequency when the control input is in a first state and output the second frequency when the control input is in a second state; and a controller programmed to: place the control input in the second state so that the AC voltage generator outputs the second frequency; accept a request to switch the AC voltage generator to output the first frequency; upon receipt of the request, place the control input in the first state so that the AC voltage generator outputs the first frequency for an interval of time; and after the interval of time has elapsed, place the control input in the second state so that the AC voltage generator outputs the second frequency; wherein the interval of time is between 12 and 72 hours. an AC voltage generator configured to operate at a first frequency between 50 and 500 kHz and a second frequency between 50 and 500 kHz, the first frequency for increasing permeability of the cell membranes of the cancer cells, the second frequency for reducing viability of the cancer cells, the second frequency being different from the first frequency, wherein the AC voltage generator has a control input and is configured to output the first frequency when the control input is in a first state and output the second frequency when the control input is in a second state; and a controller programmed to: place the control input in the second state so that the AC voltage generator outputs the second frequency; accept a request to switch the AC voltage generator to output the first frequency; upon receipt of the request, place the control input in the first state so that the AC voltage generator outputs the first frequency for an interval of time; and after the interval of time has elapsed, place the control input in the second state so that the AC voltage generator outputs the second frequency; wherein the interval of time is between 12 and 72 hours. place the control input in the second state so that the AC voltage generator outputs the second frequency; accept a request to switch the AC voltage generator to output the first frequency; upon receipt of the request, place the control input in the first state so that the AC voltage generator outputs the first frequency for an interval of time; and after the interval of time has elapsed, place the control input in the second state so that the AC voltage generator outputs the second frequency; wherein the interval of time is between 12 and 72 hours.
Movement system for any one farming machinery, constituted by a support structure provided with a three-point attachment adapted to operatively connect, by means of a rotation group , a common farm tractor to a functional head , causing a first lateral translation movement thereof and, subsequently, a second rotation movement in clockwise or counter-clockwise sense with respect to the center of rotation ; said functional head being adapted to be arranged in a first collapsed configuration, in which said functional head is situated within the overall road size determined by the tractor on which it is installed; and to assume a second translated configuration, obtained due to the movement of the functional head along the trajectory (G), characterized in that said functional head is situated outside the overall road form of the tractor on which it is installed; said rotation group being suitably positioned with respect to said functional head in a manner so as to reversibly translate along the trajectory (G) parallel to the ground; said movement system comprising a rigid arm connecting said three point attachment with said rotation group , said movement system being characterized in that it is provided with: a common transmission box inserted in said rotation group which, due to the action of said rigid arm , causes said first lateral translation movement and, due to the action of said rotation group , said second rotation movement in clockwise or counter-clockwise sense of said functional head around the center of rotation ; said second rotation movement allows complete rotations of 360°, both in clockwise sense and in anticlockwise sense, of said functional head , due to the coincidence of the center of rotation with the rotation axis of said transmission box inside said rotation group . a common transmission box inserted in said rotation group which, due to the action of said rigid arm , causes said first lateral translation movement and, due to the action of said rotation group , said second rotation movement in clockwise or counter-clockwise sense of said functional head around the center of rotation ; said second rotation movement allows complete rotations of 360°, both in clockwise sense and in anticlockwise sense, of said functional head , due to the coincidence of the center of rotation with the rotation axis of said transmission box inside said rotation group .