mhurhangee/ep-ind-claims huggingface dataset:
A physiotherapy instrument with an intelligent heating control function based on bioelectric feedback, comprising a microcontroller unit, MCU,, a boost control circuit, a pulse output control circuit, a bioelectric feedback circuit and a heating control circuit, wherein the MCU is connected to the boost control circuit, the pulse output control circuit, the bioelectric feedback circuit and the heating control circuit, the pulse output control circuit is configured to input electric pulses within a safe range to a human body by means of an electrode, the physiotherapy instrument is characterized that, the bioelectric feedback circuit is configured to feed one or multiple electric parameters, including a resistance, voltage, current and frequency of the human body during pulse physiotherapy, back to the MCU, and the MCU is configured to control a heating time of a heating element by means of the heating control circuit according to different parameters fed back by the bioelectric feedback circuit, so as to control a temperature to rise or fall.
A communication device (100; 120; 140; 190) comprising: a reception unit (114; 122; 128) configured to receive a data packet transmitted from a terminal device or transmitted to the terminal device, a communication control unit (110; 132; 152) configured: to determine that the data packet is a packet for machine type communication; to select an intermediate node on a path to a destination node of the data packet to receive the data packet, wherein the selected intermediate node is different from the destination node and is selected from a plurality of intermediate node candidates based on intermediate node data stored in a storage unit of the communication device; to replace information regarding the destination node in a destination field of the data packet with intermediate node designation information designating the selected intermediate node; a transmission unit configured to transmit the data packet into which the intermediate node designation information is inserted. a reception unit (114; 122; 128) configured to receive a data packet transmitted from a terminal device or transmitted to the terminal device, a communication control unit (110; 132; 152) configured: to determine that the data packet is a packet for machine type communication; to select an intermediate node on a path to a destination node of the data packet to receive the data packet, wherein the selected intermediate node is different from the destination node and is selected from a plurality of intermediate node candidates based on intermediate node data stored in a storage unit of the communication device; to replace information regarding the destination node in a destination field of the data packet with intermediate node designation information designating the selected intermediate node; a transmission unit configured to transmit the data packet into which the intermediate node designation information is inserted. to determine that the data packet is a packet for machine type communication; to select an intermediate node on a path to a destination node of the data packet to receive the data packet, wherein the selected intermediate node is different from the destination node and is selected from a plurality of intermediate node candidates based on intermediate node data stored in a storage unit of the communication device; to replace information regarding the destination node in a destination field of the data packet with intermediate node designation information designating the selected intermediate node; a transmission unit configured to transmit the data packet into which the intermediate node designation information is inserted.
An electrophotographic photosensitive member comprising a support, a conductive layer formed on the support, and a photosensitive layer formed on the conductive layer; wherein the conductive layer contains a binding material, and titanium oxide particles coated with tin oxide doped with tungsten. wherein the conductive layer contains a binding material, and titanium oxide particles coated with tin oxide doped with tungsten.
Method for generating steam and cold while supplying electrical energy to a compression refrigeration machine and a high-temperature heat pump, wherein a refrigerant circulating in the refrigerant circuit of the compression refrigeration machine and a heat transfer fluid circulating in the heat transfer fluid circuit of the high-temperature heat pump are in operative connection with one another via a heat transfer device incorporated in the refrigerant circuit and the heat transfer fluid circuit, extracting thermal energy from the refrigerant circuit and introducing it into the heat transfer fluid circuit, wherein in the compression refrigeration machine in at least one heat transfer device arranged in the refrigerant circuit cold is extracted from a refrigerant fluid flowing to the at least one heat transfer device at a temperature of < 0 °C and is introduced into the refrigerant circulating in the refrigerant circuit and flowing to the at least one heat transfer device at a lower temperature than the refrigerant fluid, so that the temperature of the refrigerant fluid on the return side of the heat transfer device has a lower temperature than on the flow side of the heat transfer device, and wherein the refrigerant fluid in the refrigerant circuit is subsequently compressed and thereby heated and, thus heated, is fed in the refrigerant circuit to the heat transfer device, where thermal energy is extracted from the inflowing refrigerant and is introduced in a manner heating the heat transfer fluid into the heat transfer fluid circulating in the heat transfer fluid circuit of the high-temperature heat pump, this heated heat transfer fluid then being heated in the heat transfer fluid circuit by compression in such a manner that the thermal energy content of the compressed heat transfer fluid is sufficient to subsequently, in at least one further heat transfer device arranged in the heat transfer fluid circuit, with heat energy extracted from heat transfer fluid fed to this further heat transfer device and introduced in water flowing through this at least one further heat transfer device, evaporate the water to steam.
A method of manufacturing an electromagnetic flow meter insert assembly for insertion within a flow conduit, the method comprising: forming an insert (110, 602) from a resiliently deformable material; the insert comprising: an inlet section; an outlet section; and a measuring section between the inlet section and the outlet section, wherein the diameter of the measuring section is smaller than the diameter of the inlet section and of the outlet section; forming at least one reinforcing component (112, 604); arranging the reinforcing component (112, 604) around a portion of the insert wherein at least a portion of the exterior surface of the measuring section of the insert is surrounded by the reinforcing component; bonding the reinforcing component (112, 604) to the insert to reinforce the insert against deformation under the application of pressure. forming an insert (110, 602) from a resiliently deformable material; the insert comprising: an inlet section; an outlet section; and a measuring section between the inlet section and the outlet section, wherein the diameter of the measuring section is smaller than the diameter of the inlet section and of the outlet section; an inlet section; an outlet section; and a measuring section between the inlet section and the outlet section, wherein the diameter of the measuring section is smaller than the diameter of the inlet section and of the outlet section; forming at least one reinforcing component (112, 604); arranging the reinforcing component (112, 604) around a portion of the insert wherein at least a portion of the exterior surface of the measuring section of the insert is surrounded by the reinforcing component; bonding the reinforcing component (112, 604) to the insert to reinforce the insert against deformation under the application of pressure.
Control device for longitudinal control of the grammage of a paper web in a paper machine with an operating controller for controlling a mass flow from a head box, wherein the target value for the operating controller can be determined by means of a pre-control device, wherein a measuring controller is additionally provided for the determination of the target value, to which measuring controller the mass flow target value specified by the pre-control device, a grammage target value and an input value from a measuring device can be supplied for the determination of the actual value of the grammage, wherein the measuring controller is provided to evaluate a deviation between the measured grammage and the grammage target value and to output a mass flow target value corrected accordingly compared with the mass flow target value output by the pre-control device, and wherein the mass flow target value output by the measuring controller can be corrected with correction values (25, 24) from the pre-control device.
A layer of single crystal boron doped diamond produced by CVD wherein the total boron concentration is uniform, with a variation over the majority volume which is less than 50%, measured with a lateral resolution at each measurement point of less than 50μm, wherein the majority volume represents at least 70% of the total volume of the layer, wherein the layer is formed from a single growth sector, and wherein the layer of single crystal boron doped diamond has a thickness in a range 50 to 1000 μm and a lateral size in a range 1 x 1 mm 2 to 50 x 50 mm 2.
A fiber-optic sensing system comprising: an optical fiber (102, 313); a tunable light source configured to couple light having two orthogonal polarizations into the optical fiber (102, 313); a first polarization controller comprising a first pair of plates to compress a first portion of the optical fiber (102, 313) with a constant first transverse compressive force in a first direction to cause a first phase delay on light polarized in the first direction, the first portion located between the first pair of plates; a second polarization controller comprising a second pair of plates to compress a second portion of the optical fiber (102, 313) with a variable second transverse compressive force in a second direction substantially orthogonal to the first direction to cause a second phase delay on light polarized in the second direction, the second portion of the optical fiber (102, 313) located between the second pair of plates; and control circuitry (303, 312) to cause a variation of a wavelength of the light coupled into the optical fiber to be temporally coordinated with a variation of the second transverse compressive force, wherein the second transverse compressive force is varied between minimum and maximum values corresponding to respective minimum and maximum values of the second phase delay, and wherein the first phase delay is between the minimum and maximum values of the second phase delay. an optical fiber (102, 313); a tunable light source configured to couple light having two orthogonal polarizations into the optical fiber (102, 313); a first polarization controller comprising a first pair of plates to compress a first portion of the optical fiber (102, 313) with a constant first transverse compressive force in a first direction to cause a first phase delay on light polarized in the first direction, the first portion located between the first pair of plates; a second polarization controller comprising a second pair of plates to compress a second portion of the optical fiber (102, 313) with a variable second transverse compressive force in a second direction substantially orthogonal to the first direction to cause a second phase delay on light polarized in the second direction, the second portion of the optical fiber (102, 313) located between the second pair of plates; and control circuitry (303, 312) to cause a variation of a wavelength of the light coupled into the optical fiber to be temporally coordinated with a variation of the second transverse compressive force, wherein the second transverse compressive force is varied between minimum and maximum values corresponding to respective minimum and maximum values of the second phase delay, and wherein the first phase delay is between the minimum and maximum values of the second phase delay.
Piezoelectric multilayer component as an intermediate product, having: - a stack of green piezoceramic layers, which are arranged one on top of the other, and electrode layers which are located between them, - having a first area and a second area of the stack, - wherein at least one additional disturbance layer, which contains a disturbance material, is incorporated in the stack, - wherein the disturbance layer extends over the entire cross-sectional area of the stack, - wherein the disturbance material is suitable for changing the sintering behavior of the material in the second area so as to make the second area mechanically weaker than the first area, - wherein the disturbance material comprises a transition metal and/or a chemical compound which is chosen from an: oxide, hydroxide, salt, and - wherein the second area comprises piezoceramic material, characterized in that the disturbance layer is structured and has a regular geometric pattern, wherein the disturbance layer incompletely covers a layer (2, 3) of the stack. - a stack of green piezoceramic layers, which are arranged one on top of the other, and electrode layers which are located between them, - having a first area and a second area of the stack, - wherein at least one additional disturbance layer, which contains a disturbance material, is incorporated in the stack, - wherein the disturbance layer extends over the entire cross-sectional area of the stack, - wherein the disturbance material is suitable for changing the sintering behavior of the material in the second area so as to make the second area mechanically weaker than the first area, - wherein the disturbance material comprises a transition metal and/or a chemical compound which is chosen from an: oxide, hydroxide, salt, and - wherein the second area comprises piezoceramic material, characterized in that the disturbance layer is structured and has a regular geometric pattern, wherein the disturbance layer incompletely covers a layer (2, 3) of the stack.
An apparatus comprising: - a light source; - a fibre interface coupled to the light source, the light source being configured to provide light to a fibre via the fibre interface, the light having a first frequency; - a frequency selective optical filter optically coupled to the fibre interface, arranged, in producing filtered light, to suppress light at a frequency of Brillouin scattering of light having the first frequency, and - a detector optically coupled to the optical filter, arranged to measure at least one quantity of the filtered light. - a light source; - a fibre interface coupled to the light source, the light source being configured to provide light to a fibre via the fibre interface, the light having a first frequency; - a frequency selective optical filter optically coupled to the fibre interface, arranged, in producing filtered light, to suppress light at a frequency of Brillouin scattering of light having the first frequency, and - a detector optically coupled to the optical filter, arranged to measure at least one quantity of the filtered light.
Electric powered mower unit comprising a frame provided with connecting points arranged for attaching the mower unit, a tool-carrier provided with an electrical power unit, several cutting modules, each cutting module comprising a cutting disc and an electric motor powered by the electrical power unit, said cutting disc being attached to a motor driving shaft, characterised in that each cutting module is suspended vertically displaceable and non-rotatable in a cutting module guide provided in the frame, and J an actuator forming a link between the cutting module and the frame, wherein a mower control system is arranged to set a cutting height of each cutting module in accordance with the level of a ground adjacent the respective cutting module relative the level of the frame by processing of input from a ground sensing means (123, 123a) or a satellite-based positioning system antenna or a combination thereof. a frame provided with connecting points arranged for attaching the mower unit, a tool-carrier provided with an electrical power unit, several cutting modules, each cutting module comprising a cutting disc and an electric motor powered by the electrical power unit, said cutting disc being attached to a motor driving shaft, characterised in that each cutting module is suspended vertically displaceable and non-rotatable in a cutting module guide provided in the frame, and J an actuator forming a link between the cutting module and the frame, wherein a mower control system is arranged to set a cutting height of each cutting module in accordance with the level of a ground adjacent the respective cutting module relative the level of the frame by processing of input from a ground sensing means (123, 123a) or a satellite-based positioning system antenna or a combination thereof.
A prostate ablation system, comprising: a vapor generator; and an ablation probe operatively coupled to the vapor generator and adapted to be inserted transurethrally into a prostate adjacent to a prostatic urethra of a patient, the vapor delivery probe adapted to deliver condensable vapor from the vapor generator into the prostate to deliver between 100 and 10,000 Joules to the prostate to ablate the prostate without ablating the prostatic urethra, wherein the system is configured so that the ablation probe is inserted transurethrally into the prostate through the prostatic urethra. a vapor generator; and an ablation probe operatively coupled to the vapor generator and adapted to be inserted transurethrally into a prostate adjacent to a prostatic urethra of a patient, the vapor delivery probe adapted to deliver condensable vapor from the vapor generator into the prostate to deliver between 100 and 10,000 Joules to the prostate to ablate the prostate without ablating the prostatic urethra, wherein the system is configured so that the ablation probe is inserted transurethrally into the prostate through the prostatic urethra.
A process for making the quaternary ammonium compound, p-methoxy cinnamidopropyl behenyl dimethyl ammonium chloride of Formula I wherein; R is a linear alkyl group with minimum of 80% by wt. behenyl (C 22) said process comprising the steps of: a) reacting p-methoxy cinnamoyl chloride (Formula III) with N,N-dimethylaminopropylamine in aqueous medium to give p-methoxy cinnamidopropyl dimethyl amine (Formula II) and b) quaternizing p-methoxy cinnamidopropyl dimethyl amine with behenyl chloride in aqueous medium to give the compound of Formula I. a) reacting p-methoxy cinnamoyl chloride (Formula III) with N,N-dimethylaminopropylamine in aqueous medium to give p-methoxy cinnamidopropyl dimethyl amine (Formula II) and b) quaternizing p-methoxy cinnamidopropyl dimethyl amine with behenyl chloride in aqueous medium to give the compound of Formula I.
A method for forming a reinforced metal matrix, including the steps of: (a) melting a metal or metal alloy, (b) adding basalt fibres to the melt of step (a) at a proportion from 1 to 10wt%, (c) stirring the basalt fibres and melt of step (b) at a rate from 400 to 1200rpm for a time from 1 to 60 minutes, and (d) sonicating the basalt fibres and melt of step (c) from 1 to 15 minutes at a frequency from 10kHz to 30kHz, a power from 2 to 5kW and an amplitude from 20 to 50μm. (a) melting a metal or metal alloy, (b) adding basalt fibres to the melt of step (a) at a proportion from 1 to 10wt%, (c) stirring the basalt fibres and melt of step (b) at a rate from 400 to 1200rpm for a time from 1 to 60 minutes, and (d) sonicating the basalt fibres and melt of step (c) from 1 to 15 minutes at a frequency from 10kHz to 30kHz, a power from 2 to 5kW and an amplitude from 20 to 50μm.
An odor-controlling bodily fluid absorbent member, consisting of: an absorbent material; and dispersed therein chloramine T as a halo active aromatic sulfonamide compound of Formula; and N-chloro-p-carboxybenzenesulfonamide as a second different sulfonamide compound of Formula (VIII) and a buffering agent; wherein the weight ratio of the two sulfonamide compounds is from 70:30 to 30:70; and wherein the two sulfonamide compounds are present in the range of from 0.5 to 15 weight percent, based on the weight of the absorbent member. an absorbent material; and dispersed therein chloramine T as a halo active aromatic sulfonamide compound of Formula; and N-chloro-p-carboxybenzenesulfonamide as a second different sulfonamide compound of Formula (VIII) and a buffering agent; wherein the weight ratio of the two sulfonamide compounds is from 70:30 to 30:70; and wherein the two sulfonamide compounds are present in the range of from 0.5 to 15 weight percent, based on the weight of the absorbent member.
A capacitive touch panel comprising: a substrate having a main surface; a first detection electrode pattern provided on the main surface of the substrate; and a second detection electrode pattern provided on the main surface of the substrate, a portion of the second detection electrode pattern intersecting a portion of the first detection electrode pattern via an insulator, wherein the insulator is provided on the main surface of the substrate, has an upper surface positioned at an opposite side to the main surface, and has a convex curved surface with respect to the main surface on a cross section along the second detection electrode pattern and in a region from an end portion to an apex of the upper surface of the insulator, characterized in that on the cross section along the second detection electrode pattern, a thickness of the second detection electrode pattern at the end portion of the insulator is larger than a thickness of the second detection electrode pattern at the apex of the insulator. a substrate having a main surface; a first detection electrode pattern provided on the main surface of the substrate; and a second detection electrode pattern provided on the main surface of the substrate, a portion of the second detection electrode pattern intersecting a portion of the first detection electrode pattern via an insulator, wherein