mhurhangee/patent-ind-claim-en huggingface dataset:
A wearable body temperature monitoring device, configured to be mounted on an object worn on a to-be-sensed body, and the wearable body temperature monitoring device comprising: a hollow shell member comprising a sensing surface and an outer surface , wherein the sensing surface and the outer surface are two side surfaces opposite to each other, and the sensing surface is provided with a hole ; and a circuit board accommodated in the hollow shell member and comprising a first side surface corresponding in position to the sensing surface and a second side surface corresponding in position to the outer surface , wherein the circuit board is provided with a non-contact temperature sensor , a wireless transmission module , a processing unit , and a battery , and the non-contact temperature sensor is disposed at the first side surface and aligned with the hole of the sensing surface ; wherein a wave collector covered on the non-contact temperature sensor and aligned with the hole of the sensing surface includes a trumpet-shaped opening; characterized by a clip disposed at the sensing surface of the hollow shell member and configured to fasten with the object and make the hole of the sensing surface face towards the to-be-sensed body; and an indicator light located at the second side surface and exposed out of the outer surface of the hollow shell member, and the processing unit is electrically connected to the indicator light and the non-contact temperature sensor to calculate a temperature sensing value, and control the indicator light to emit light with different colors to indicate a variation of the temperature sensing value. a hollow shell member comprising a sensing surface and an outer surface , wherein the sensing surface and the outer surface are two side surfaces opposite to each other, and the sensing surface is provided with a hole ; and a circuit board accommodated in the hollow shell member and comprising a first side surface corresponding in position to the sensing surface and a second side surface corresponding in position to the outer surface , wherein the circuit board is provided with a non-contact temperature sensor , a wireless transmission module , a processing unit , and a battery , and the non-contact temperature sensor is disposed at the first side surface and aligned with the hole of the sensing surface ; wherein a wave collector covered on the non-contact temperature sensor and aligned with the hole of the sensing surface includes a trumpet-shaped opening; a clip disposed at the sensing surface of the hollow shell member and configured to fasten with the object and make the hole of the sensing surface face towards the to-be-sensed body; and an indicator light located at the second side surface and exposed out of the outer surface of the hollow shell member, and the processing unit is electrically connected to the indicator light and the non-contact temperature sensor to calculate a temperature sensing value, and control the indicator light to emit light with different colors to indicate a variation of the temperature sensing value.
An electrical radiator type heating appliance intended to be electrically connected to an electric power supply source, comprising a case constituted at least partially by a metallic frame , at least one radiating heater body implanted in the metallic frame , said heating appliance being characterized in that it comprises at least one first shielded element constituted by a first resistive body type adapted to generate heat when it is powered by an alternating electric current, and at least one second shielded element constituted by a second resistive body type adapted to generate heat when it is powered by a direct electric current, said at least one first shielded element and said at least one second shielded element being embedded in the material of said at least one radiating heater body .
Gas sensor comprising a chamber , capable of receiving the gas , the sensor also comprising: - a light source , capable of emitting a light wave that is propagated in the chamber according to an emission beam (Ω1); - a measurement photodetector and a reference photodetector , each being capable of detecting a light wave emitted by the light source and having passed through the chamber, the measurement photodetector and the reference photodetector extending respectively on a detection plane (P 12 , P 13 ); the sensor being such that the chamber extends between two transverse walls , disposed facing one another, the transverse walls being linked to on another by a peripheral wall , extending, between the transverse walls, around a lateral axis (Z), the peripheral wall comprising: - a first curved reflecting surface , capable of receiving a first portion of the emission beam (Ω1) to reflect it, thus forming a measurement beam (Ω2); - a second curved reflecting surface , capable of receiving a second portion of the emission beam (Ω1) to reflect it, thus forming a reference beam (Ω3); the sensor being characterized in that : - the detection plane (P 12 ) of the measurement photodetector and the detection plane (P 13 ) of the reference photodetector extend parallel or substantially parallel to a transverse wall; - the sensor comprises a first reflector , arranged to reflect all or part of the measurement beam (Ω2) towards the measurement photodetector, and a second reflector , arranged to reflect all or part of the reference beam (Ω3) towards the reference photodetector. - a light source , capable of emitting a light wave that is propagated in the chamber according to an emission beam (Ω1); - a measurement photodetector and a reference photodetector , each being capable of detecting a light wave emitted by the light source and having passed through the chamber, the measurement photodetector and the reference photodetector extending respectively on a detection plane (P 12 , P 13 ); - a first curved reflecting surface , capable of receiving a first portion of the emission beam (Ω1) to reflect it, thus forming a measurement beam (Ω2); - a second curved reflecting surface , capable of receiving a second portion of the emission beam (Ω1) to reflect it, thus forming a reference beam (Ω3); - the detection plane (P 12 ) of the measurement photodetector and the detection plane (P 13 ) of the reference photodetector extend parallel or substantially parallel to a transverse wall; - the sensor comprises a first reflector , arranged to reflect all or part of the measurement beam (Ω2) towards the measurement photodetector, and a second reflector , arranged to reflect all or part of the reference beam (Ω3) towards the reference photodetector.
A code division multiplexing method, characterized by comprising: obtaining 4 different codeword sequences; determining mapping relations between the 4 different codeword sequences and each reference signal sub-carrier; and characterized by multiplexing , on each reference signal sub-carrier, reference signal symbols of each space layer according to the codeword sequence that is corresponding to each reference signal sub-carrier; wherein, the 4 different codeword sequences are: W1 = [A, B, C, D]; W2 = [B, A, D, C]; W3 = [C, D, A, B] or [C, D, B, A]; W4 = [D, C, B, A] or [D, C, A, B]; wherein, A, B, C, and D are column vectors, and each of W1, W2, W3 and W4 is a 4-dimensional orthogonal matrix; wherein: the determining mapping relations between the multiple different codeword sequences and each reference signal sub-carrier comprises: determining that the 4 different codeword sequences W1, W2, W3, and W4 are adopted by each reference signal sub-carrier by turns. obtaining 4 different codeword sequences; determining mapping relations between the 4 different codeword sequences and each reference signal sub-carrier; and characterized by multiplexing , on each reference signal sub-carrier, reference signal symbols of each space layer according to the codeword sequence that is corresponding to each reference signal sub-carrier; wherein, the 4 different codeword sequences are: W1 = [A, B, C, D]; W2 = [B, A, D, C]; W3 = [C, D, A, B] or [C, D, B, A]; W4 = [D, C, B, A] or [D, C, A, B]; wherein, A, B, C, and D are column vectors, and each of W1, W2, W3 and W4 is a 4-dimensional orthogonal matrix; W1 = [A, B, C, D]; W2 = [B, A, D, C]; W3 = [C, D, A, B] or [C, D, B, A]; W4 = [D, C, B, A] or [D, C, A, B]; wherein: the determining mapping relations between the multiple different codeword sequences and each reference signal sub-carrier comprises: determining that the 4 different codeword sequences W1, W2, W3, and W4 are adopted by each reference signal sub-carrier by turns. the determining mapping relations between the multiple different codeword sequences and each reference signal sub-carrier comprises: determining that the 4 different codeword sequences W1, W2, W3, and W4 are adopted by each reference signal sub-carrier by turns.
A razor cartridge comprising a skin engaging member, the said skin engaging member comprising: - A water-insoluble matrix comprising: maleic anhydride copolymer being in grafted form and a thermoplastic elastomer compound - A water-soluble lubricating polymer being in concentration less than 30% and being dispersed in the water-insoluble matrix, - wherein the maleic anhydride copolymer in grafted form is a polyolefin or polystyrene polymer and/or copolymer grafted with maleic anhydride. - A water-insoluble matrix comprising: maleic anhydride copolymer being in grafted form and a thermoplastic elastomer compound - A water-soluble lubricating polymer being in concentration less than 30% and being dispersed in the water-insoluble matrix, - wherein the maleic anhydride copolymer in grafted form is a polyolefin or polystyrene polymer and/or copolymer grafted with maleic anhydride.
A DC circuit breaker comprising: a mechanical circuit breaker that has a first end connected to a first DC transmission line and a second end connected to a second DC transmission line; a lightning arrester ; and a commutation circuit that has a first switch, a second switch, a reactor , and a capacitor , wherein the commutation circuit , the lightning arrester , and the mechanical circuit breaker are connected to each other in parallel between the first DC transmission line and the second DC transmission line, the first switch, the capacitor , and the reactor are connected to each other in series between the first DC transmission line and the second DC transmission line, characterized in that the commutation circuit further comprises a resistor , and the second switch and the resistor connected in series are provided in parallel with the first switch. a mechanical circuit breaker that has a first end connected to a first DC transmission line and a second end connected to a second DC transmission line; a lightning arrester ; and a commutation circuit that has a first switch, a second switch, a reactor , and a capacitor , wherein the commutation circuit , the lightning arrester , and the mechanical circuit breaker are connected to each other in parallel between the first DC transmission line and the second DC transmission line, the first switch, the capacitor , and the reactor are connected to each other in series between the first DC transmission line and the second DC transmission line, characterized in that the commutation circuit further comprises a resistor , and the second switch and the resistor connected in series are provided in parallel with the first switch.
Tire with a profiled tread , with an outer tire sidewall oriented toward the outside of the vehicle when the tire is mounted and an inner tire sidewall oriented toward the side of the vehicle, the outer tire sidewall adjoining an outer tread surface region of the tread and the inner tire sidewall adjoining an inner tread surface region of the tread arranged indirectly or directly next to the outer tread surface region transversely to the direction of rotation of the tire , wherein spikes are embedded in the outer tread surface region and in the inner tread surface region of the tread surface of the tire , a spike pin of each of which protrudes beyond the tread surface , wherein, in the case of the spikes arranged in the outer tread surface region , the extent, measured in the circumferential direction of the tire , of the outer sides (24.1) of the spike pins facing the outer tire flank is greater than the extent, measured in the circumferential direction , of the inner sides (24. 2) of the spike pins facing the inner tire sidewall , characterized in that the spike pins arranged in the inner tread region are formed and/or aligned as mirror images of the spike pins arranged in the outer tread region .
Wiper device comprising a wiper blade adapter having at least one first wiper blade adapter element and at least one second wiper blade adapter element which is connected to the first wiper blade adapter element in at least one assembled state and is provided for connecting to at least one wiper arm adapter , and comprising a spraying unit which, in the assembled state, is arranged at least partially between the first wiper blade adapter element and the second wiper blade adapter element , wherein the spraying unit has at least one nozzle element having a nozzle opening, characterized in that , in the assembled state, the spraying unit is connected to the second wiper blade adapter element and is substantially surrounded on all sides by the wiper blade adapter elements .
A method of forming a coated cutting member or a coated wear part, comprising the steps of: (a) Obtaining a substrate fabricated from a selected material and having an appropriate geometry; (b) Placing the substrate in a chemical vapor deposition reaction chamber; and (c) Depositing a titanium based hard material coating layer, namely, TiCN, TiC, or TiN modified by the inclusion of at least one alloying element selected from the list of chromium, vanadium and silicon, having a general formula of (Ti 100-a-b-c Cr a V b Si c )C x N y O z , where x+y+z = 1 and a+b+c > 0, by chemical vapor deposition, wherein at least 70% of the metal content is Ti, wherein the total alloying element content is between 0.1% and 30% of the total metal content, and wherein at least 0.1% of the metal content of the titanium based hard material coating layer is selected from the list of chromium and silicon, characterized in that the titanium based hard material coating layer is deposited at a temperature in the range of 720°C to 1100°C. (a) Obtaining a substrate fabricated from a selected material and having an appropriate geometry; (b) Placing the substrate in a chemical vapor deposition reaction chamber; and (c) Depositing a titanium based hard material coating layer, namely, TiCN, TiC, or TiN modified by the inclusion of at least one alloying element selected from the list of chromium, vanadium and silicon, having a general formula of (Ti 100-a-b-c Cr a V b Si c )C x N y O z , where x+y+z = 1 and a+b+c > 0, by chemical vapor deposition,
Dispersion, comprising: (a) at least one photosensitizer selected from the group consisting of phenalenones, curcumins, flavins and mixtures thereof, (b) at least one liquid polar phase, and (c) at least one surfactant, and wherein the dispersion at a temperature from a range of 2 to 50°C and a pressure in a range of 800 to 1200 mbar comprises a microemulsion, a gel or a mixture thereof. (a) at least one photosensitizer selected from the group consisting of phenalenones, curcumins, flavins and mixtures thereof, (b) at least one liquid polar phase, and (c) at least one surfactant, and
Baking module for bakery, Viennese pastry and similar products , including a baking chamber comprising a roof and a movable or static hearth on which the said products directly or indirectly rest through a suitable baking support such as a plate, a net, a baking mold or the like, said module being also provided at least with heating means at the roof , the latter comprising a plenum in which a heat-transfer fluid circulates from an inlet to at least one outlet , the plenum including a plurality of orifices for blowing heat-transfer fluid into the baking chamber , said module also comprising at least: - means for concealing said blowing orifices movable between at least two positions , one for concealing said blowing orifices , the other one for opening the latter; - means for sucking the heat-transfer fluid passing through the plenum and/or blown into the baking chamber , said concealment means consist of closing means in the form of a plate in which orifices are formed in an arrangement consistent with the blowing orifices , so that, in the open position , these orifices are located in front of said blowing orifices for a convection heating of the products and so that, in the concealment position , said orifices in the plate are offset with respect to said blowing orifices , said plate closing the latter and leading to a radiation heating of said products , said baking module being characterized in that said plenum includes, on the one hand, a first outlet for the heat-transfer fluid defined by the blowing orifices , and a second outlet in communication with a suction duct , said module also including at least one suction duct in communication with said chamber , said suction ducts being each provided with respective closing means capable of passing at least from an open position to a closed position, the means for closing the suction outlet being in the open position, respectively in the closed position, when said concealment means are in the open position , respectively in the concealment position , while the means for closing the suction outlet are in the open position, respectively in the closed position, when said concealment means are in the concealment position , respectively in the open position . - means for concealing said blowing orifices movable between at least two positions , one for concealing said blowing orifices , the other one for opening the latter; - means for sucking the heat-transfer fluid passing through the plenum and/or blown into the baking chamber ,
An electronic device for charging a battery, the electronic device comprising: a battery ; a first charger ; a first circuit path connected to an external power source, wherein the first charger is configured to: receive a first power of a first voltage from the external power source, adjust at least one of a voltage or a current of the first power, and provide the adjusted first power to the battery ; a second circuit path including a switch connected to a second charger of the external power source; and a processor configured to: open the switch to provide a first current to the battery using the first circuit path, and close the switch to connect the second charger of the external power source to the battery and provide the first current and a second current corresponding to a second power of a second voltage from the second charger of the external power source to the battery , wherein the adjusted first power is provided to the battery while the switch is open, wherein the adjusted first power and the second power are provided to the battery while the switch is closed, wherein the second current is a current which is higher than the first current. a battery ; a first charger ; a first circuit path connected to an external power source, wherein the first charger is configured to: receive a first power of a first voltage from the external power source, adjust at least one of a voltage or a current of the first power, and provide the adjusted first power to the battery ; receive a first power of a first voltage from the external power source, adjust at least one of a voltage or a current of the first power, and provide the adjusted first power to the battery ; a second circuit path including a switch connected to a second charger of the external power source; and a processor configured to: open the switch to provide a first current to the battery using the first circuit path, and close the switch to connect the second charger of the external power source to the battery and provide the first current and a second current corresponding to a second power of a second voltage from the second charger of the external power source to the battery , open the switch to provide a first current to the battery using the first circuit path, and close the switch to connect the second charger of the external power source to the battery and provide the first current and a second current corresponding to a second power of a second voltage from the second charger of the external power source to the battery , wherein the adjusted first power is provided to the battery while the switch is open, wherein the adjusted first power and the second power are provided to the battery while the switch is closed, wherein the second current is a current which is higher than the first current.
A device for collecting a target analyte from a body of liquid, the device comprising - an inlet for introducing liquid from the body of liquid into the device and an outlet for removing liquid from the device, - a diffusion module connected to the inlet and to the outlet and further comprising at least one cell for collecting the target analyte from liquid flowing between the inlet and the outlet, and - a flow meter adapted to measure the flux of liquid within the device, wherein the device further comprises a communication module comprising an input for receiving signals from the flow meter and a transmitter for transmitting the signals received from the input to an external unit, for monitoring the flux of liquid through the diffusion module, further comprising at least one further sensor for measuring physicochemical parameters of the liquid, characterized in that the device is further adapted for changing the flow rate data acquisition for optimizing flow data per unit of time as a response to the measurement of the at least one further sensor. - an inlet for introducing liquid from the body of liquid into the device and an outlet for removing liquid from the device, - a diffusion module connected to the inlet and to the outlet and further comprising at least one cell for collecting the target analyte from liquid flowing between the inlet and the outlet, and - a flow meter adapted to measure the flux of liquid within the device, wherein the device further comprises a communication module comprising an input for receiving signals from the flow meter and a transmitter for transmitting the signals received from the input to an external unit, for monitoring the flux of liquid through the diffusion module, further comprising at least one further sensor for measuring physicochemical parameters of the liquid, characterized in that the device is further adapted for changing the flow rate data acquisition for optimizing flow data per unit of time as a response to the measurement of the at least one further sensor.