mhurhangee/ep-ind-claims huggingface dataset:
A self-moving robot movement boundary delimiting method, the method comprises the following steps: setting up at least three base stations (BS, BS1, BS2, BS3) in a movement area of a self-moving robot; gathering sample points (P1, P2, P3, P4, P5, P6, P7, P8, P9) in the movement area of the self-moving robot and determining the coordinates of the sample points (P1, P2, P3, P4, P5, P6, P7, P8, P9) in a coordinate system; and delimiting a boundary according to the coordinates of the gathered sample points (P1, P2, P3, P4, P5, P6, P7, P8, P9), and setting the self-moving robot to work inside or outside the boundary, the method being characterized in that it further comprises the steps of: planning a movement path in the movement area of the self-moving robot by controlling the self-moving robot to move and establishing the coordinate system using the at least three base stations (BS, BS1, BS2, BS3). setting up at least three base stations (BS, BS1, BS2, BS3) in a movement area of a self-moving robot; gathering sample points (P1, P2, P3, P4, P5, P6, P7, P8, P9) in the movement area of the self-moving robot and determining the coordinates of the sample points (P1, P2, P3, P4, P5, P6, P7, P8, P9) in a coordinate system; and delimiting a boundary according to the coordinates of the gathered sample points (P1, P2, P3, P4, P5, P6, P7, P8, P9), and setting the self-moving robot to work inside or outside the boundary, the method being characterized in that it further comprises the steps of: planning a movement path in the movement area of the self-moving robot by controlling the self-moving robot to move and establishing the coordinate system using the at least three base stations (BS, BS1, BS2, BS3).
Method for utilizing gases containing CO and/or CO 2 comprising the method steps of: A) providing a gas stream of gas containing CO and/or CO 2, B) converting at least a part of the gas stream into electrical energy, C) converting at least a part of the gas stream to at least one organic substance in a biotechnological fermentation process and optionally D) repeating method steps B) and C) characterized in that acetogenic bacteria are used in method step C) and in that method step A) includes the use of blast furnace gas from a blast furnace in steel-making. A) providing a gas stream of gas containing CO and/or CO 2, B) converting at least a part of the gas stream into electrical energy, C) converting at least a part of the gas stream to at least one organic substance in a biotechnological fermentation process and optionally D) repeating method steps B) and C) characterized in that
A hot-rolled and annealed ferritic stainless steel sheet having a chemical composition containing, in percent by mass, C: 0.001% to 0.020%, Si: 0.05% to 1.00%, Mn: 0.05% to 1.00%, P: 0.04% or less, S: 0.01% or less, Al: 0.001% to 0.100%, Cr: 10.0% to 19.0%, Ni: 0.65% to 1.50%, Ti: 0.10% to 0.40%, N: 0.001% to 0.020%, optionally one or two or more selected from Cu: 0.01% to 1.00%, Mo: 0.01% to 2.00%, W: 0.01% to 0.20%, and Co: 0.01% to 0.20%, and optionally one or two or more selected from V: 0.01% to 0.20%, Nb: 0.01% to 0.10%, Zr: 0.01% to 0.20%, REM: 0.001% to 0.100%, B: 0.0002% to 0.0025%, Mg: 0.0005% to 0.0030%, and Ca: 0.0003% to 0.0030%, with the balance being Fe and unavoidable impurities; and having a threshold stress intensity factor K IC of 35 MPa ·m 1/2 or more, wherein the threshold stress intensity factor K IC is a stress intensity factor obtained by taking a CT specimen according to ASTM E399 from the central part in the sheet width direction such that a fatigue pre-crack is introduced in a direction perpendicular to the rolling direction and the stress axis is in a direction parallel to the rolling direction and by conducting a test according to ASTM E399. C: 0.001% to 0.020%, Si: 0.05% to 1.00%, Mn: 0.05% to 1.00%, P: 0.04% or less, S: 0.01% or less, Al: 0.001% to 0.100%, Cr: 10.0% to 19.0%, Ni: 0.65% to 1.50%, Ti: 0.10% to 0.40%, N: 0.001% to 0.020%, optionally one or two or more selected from Cu: 0.01% to 1.00%, Mo: 0.01% to 2.00%, W: 0.01% to 0.20%, and Co: 0.01% to 0.20%, and optionally one or two or more selected from V: 0.01% to 0.20%, Nb: 0.01% to 0.10%, Zr: 0.01% to 0.20%, REM: 0.001% to 0.100%, B: 0.0002% to 0.0025%, Mg: 0.0005% to 0.0030%, and Ca: 0.0003% to 0.0030%, with the balance being Fe and unavoidable impurities; and having a threshold stress intensity factor K IC of 35 MPa ·m 1/2 or more, wherein the threshold stress intensity factor K IC is a stress intensity factor obtained by taking a CT specimen according to ASTM E399 from the central part in the sheet width direction such that a fatigue pre-crack is introduced in a direction perpendicular to the rolling direction and the stress axis is in a direction parallel to the rolling direction and by conducting a test according to ASTM E399.
A resin composition, comprising: 90 to 50% by weight of a polyamide having 7 or more average carbon atoms per amide functional group and containing no aromatic ring; 10 to 50% by weight of a polyamide having an aromatic ring and being crystalline, based on 100% by weight of the total of the component and the component; and 5 to 75 parts by weight of a carbon fiber, based on 100 parts by weight of the polyamide comprising and, wherein the component is a meta-xylylene group-containing polyamide. 90 to 50% by weight of a polyamide having 7 or more average carbon atoms per amide functional group and containing no aromatic ring; 10 to 50% by weight of a polyamide having an aromatic ring and being crystalline, based on 100% by weight of the total of the component and the component; and 5 to 75 parts by weight of a carbon fiber, based on 100 parts by weight of the polyamide comprising and, wherein the component is a meta-xylylene group-containing polyamide.
A resin film product comprising: a b-staged resin base layer having a first planar surface and a second planar surface, wherein the base layer has a thickness of 25.4μm (1 mil) to 254μm (10 mils); a first protective layer disposed on the first planar surface of the base layer; and a second protective layer disposed on the second planar surface of the base layer; wherein the first protective layer and the second protective layer are comprised of a biaxially oriented polyethylene terephthalate with a thickness of 25.4μm (1 mil) to 127μm (5 mils) and are configured to be separable from the base layer. a b-staged resin base layer having a first planar surface and a second planar surface, wherein the base layer has a thickness of 25.4μm (1 mil) to 254μm (10 mils); a first protective layer disposed on the first planar surface of the base layer; and a second protective layer disposed on the second planar surface of the base layer; wherein the first protective layer and the second protective layer are comprised of a biaxially oriented polyethylene terephthalate with a thickness of 25.4μm (1 mil) to 127μm (5 mils) and are configured to be separable from the base layer.
An actuating device suitable to be connected to an associated electric switchgear of the type comprising a casing housing one or more electrical devices and at least one bushing (3, 4, 5) which is connected to said casing and houses a conductor suitable to allow the electrical connection in input to or output from the switchgear, said actuating device being characterized in that it comprises a gear mechanism which is suitable to be mounted at and outside the zone where said at least one bushing (3, 4, 5) is connected to said casing, wherein said gear mechanism comprises a plurality of gear means (11, 12, 21, 24) which are operatively interconnected to each other and are arranged to move said at least one bushing (3, 4, 5) between a first service position and a second transport position wherein it is lowered towards said casing from said first service position, and connection means (13, 20) which are arranged to keep said at least one bushing (3, 4, 5) operatively coupled to said casing while moving it between said first and second positions.
Method for authenticating a timepiece of a timepiece model comprising the following steps: measuring acoustic vibrations emitted by said timepiece to obtain an electrical signal, said electrical signal indicating a variation of a magnitude of said measured acoustic vibrations as a function of time, wherein said electrical signal comprises a plurality of acoustic events (1, 2) associated with mechanical shocks taking place in said timepiece, extracting in said electrical signal or in a representation of said electrical signal in a time, frequency or time-frequency domain at least one of a magnitude information on a magnitude of one of said plurality of acoustic events, a time information on said one of said plurality of acoustic events and a frequency information on a frequency of said one of said plurality of acoustic events, comparing said extracted at least one of a magnitude information, time information and frequency information with at least one of a reference magnitude information, reference time information and reference frequency information which has been previously stored for said timepiece model, and deriving an information on an authenticity of said timepiece based on the comparison result. measuring acoustic vibrations emitted by said timepiece to obtain an electrical signal, said electrical signal indicating a variation of a magnitude of said measured acoustic vibrations as a function of time, wherein said electrical signal comprises a plurality of acoustic events (1, 2) associated with mechanical shocks taking place in said timepiece, extracting in said electrical signal or in a representation of said electrical signal in a time, frequency or time-frequency domain at least one of a magnitude information on a magnitude of one of said plurality of acoustic events, a time information on said one of said plurality of acoustic events and a frequency information on a frequency of said one of said plurality of acoustic events, comparing said extracted at least one of a magnitude information, time information and frequency information with at least one of a reference magnitude information, reference time information and reference frequency information which has been previously stored for said timepiece model, and deriving an information on an authenticity of said timepiece based on the comparison result.
Method for preprocessing PET-flakes in particular prior to depolymerisation by glycolysis and/or methanolysis and/or hydrolysis and/or saponification or any other combination of these PET depolymerisation processes, wherein the method comprises extracting organic colorants from the PET-flakes and simultaneous embrittlement of the PET-flakes by: - contacting PET-flakes with ethylene glycol in a contacting vessel at preferably ambient pressure at an extraction temperature T ext with, 192°C ≤ T ext ≤ 205°C and - removing used ethylene glycol and adding fresh ethylene glycol, characterized in that prior to the extraction step the PET-flakes are pre-treated by immersing the PET-flakes in a pre-treatment vessel in an organic solvent comprising at least one of the following compounds: polyethylene glycol and/or ethylene glycol, and/or triethylene glycol and/or tetraethylene glycol. - contacting PET-flakes with ethylene glycol in a contacting vessel at preferably ambient pressure at an extraction temperature T ext with, 192°C ≤ T ext ≤ 205°C and - removing used ethylene glycol and adding fresh ethylene glycol, characterized in that
A method for uplink synchronization, the method comprising: receiving, by a user equipment, UE, (120; 320), a radio resource control, RRC, message from a network, the RRC message comprising a first timing advance group, TAG, identity, ID and a second TAG ID different than the first TAG ID; transmitting, by the UE (120; 320), a first signal and a second signal over a same component carrier, the first signal being transmitted in accordance with a first timing advance associated with the first TAG ID, and the second signal being transmitted in accordance with a second timing advance associated with the second TAG ID; wherein the first TAG ID and the second TAG ID are included in a transmission configuration indicator, TCI, state configuration in the RRC message, the first TAG ID and the second TAG ID mapped to different TCI states. receiving, by a user equipment, UE, (120; 320), a radio resource control, RRC, message from a network, the RRC message comprising a first timing advance group, TAG, identity, ID and a second TAG ID different than the first TAG ID; transmitting, by the UE (120; 320), a first signal and a second signal over a same component carrier, the first signal being transmitted in accordance with a first timing advance associated with the first TAG ID, and the second signal being transmitted in accordance with a second timing advance associated with the second TAG ID; wherein the first TAG ID and the second TAG ID are included in a transmission configuration indicator, TCI, state configuration in the RRC message, the first TAG ID and the second TAG ID mapped to different TCI states.
A solution for removing various types of deposits from a surface, including deposits with high organic content, comprising hydrogen peroxide, chelating agent, anti-foaming agent, water-soluble calixarene and water at the following quantitative ratio, % wt.: hydrogen peroxide 2-35 catalyst for decomposing peroxide compounds 2-20 chelating agent 3-10 surface active agent 0.1-5 anti-foaming agent 0.01-1.0 water-soluble calixarene 0.01-1 water remaining part; wherein the chelating agent is a water-soluble polyatomic salt of organic acid or phosphonic acid derivative; the SAA is alkylbenzene sulfonate, nonoxynol, ethoxylated fat alcohol, laureth sulfate or a mixture thereof; and the anti-foaming agent is a water-oil emulsion of polymethylsiloxanes or other silicon organic compounds, ethylene oxide or propylene oxide-based block copolymer. the chelating agent is a water-soluble polyatomic salt of organic acid or phosphonic acid derivative; the SAA is alkylbenzene sulfonate, nonoxynol, ethoxylated fat alcohol, laureth sulfate or a mixture thereof; and the anti-foaming agent is a water-oil emulsion of polymethylsiloxanes or other silicon organic compounds, ethylene oxide or propylene oxide-based block copolymer.
A fluid infusion device, comprising: a body, comprising an activation button; and a base, slidably receiving said activation button; characterized by a hollow cannula tubing member having an introducer needle portion and a spring portion, wherein the introducer needle portion is introducing a catheter; wherein the spring portion is formed by a hollow cannula tubing wound, bent and sharpened into a shape which allows it to operate as an introducer needle, a retraction spring and a fluid path, wherein the introducer needle portion extends centrally through the length of the spring portion, and wherein said activation button is slidable to insert said introducer needle portion of said tubing member into a body of a user and to activate said spring portion of said tubing member by applying an activation force to the spring portion, and upon insertion, to release said spring portion of said tubing member to retract said introducer needle portion of said tubing from said body of said user by removing the activation force from the spring portion. a body, comprising an activation button; and a base, slidably receiving said activation button; characterized by a hollow cannula tubing member having an introducer needle portion and a spring portion, wherein the introducer needle portion is introducing a catheter; wherein the spring portion is formed by a hollow cannula tubing wound, bent and sharpened into a shape which allows it to operate as an introducer needle, a retraction spring and a fluid path, wherein the introducer needle portion extends centrally through the length of the spring portion, and wherein said activation button is slidable to insert said introducer needle portion of said tubing member into a body of a user and to activate said spring portion of said tubing member by applying an activation force to the spring portion, and upon insertion, to release said spring portion of said tubing member to retract said introducer needle portion of said tubing from said body of said user by removing the activation force from the spring portion.
A differential case assembly, comprising: a differential case having an open end and a side wall with an exterior surface; an integral end cap and ring gear assembly disposed over the open end of the differential case and adjacent the exterior surface, a first interior portion of the integral end cap and ring gear assembly abutting the exterior surface of the differential case to define a weld joint interface, characterized in that the integral end cap and ring gear assembly has a plurality of slots formed therein that permit access to both the differential case and the integral end cap and ring gear assembly for a welding operation at the weld joint interface. a differential case having an open end and a side wall with an exterior surface; an integral end cap and ring gear assembly disposed over the open end of the differential case and adjacent the exterior surface, a first interior portion of the integral end cap and ring gear assembly abutting the exterior surface of the differential case to define a weld joint interface, characterized in that the integral end cap and ring gear assembly has a plurality of slots formed therein that permit access to both the differential case and the integral end cap and ring gear assembly for a welding operation at the weld joint interface.
A rechargeable electrochemical device, comprising: an ionically conducting electrolyte comprising a compressed gas solvent, wherein the compressed gas solvent has a vapor pressure above an atmospheric pressure of 100 kPa at a room temperature of 293.15 K; a housing enclosing the ionically conducting electrolyte and structured to provide a pressurized condition to the compressed gas solvent, characterized in that the compressed gas solvent is capable of being placed under a compressive pressure equal to, or greater than, the compressed gas solvent's vapor pressure at a temperature when the compressive pressure is applied, thereby keeping the compressed gas solvent in a liquid phase, the compressed gas solvent is a saturated or unsaturated hydrocarbon having a halogenated component, and the compressed gas solvent's vapor pressure is higher than 100 kPa (1 atm) pressure but less than 5000 kPa (50 atm); and at least two conducting electrodes in contact with the ionically conducting electrolyte. an ionically conducting electrolyte comprising a compressed gas solvent, wherein the compressed gas solvent has a vapor pressure above an atmospheric pressure of 100 kPa at a room temperature of 293.15 K; a housing enclosing the ionically conducting electrolyte and structured to provide a pressurized condition to the compressed gas solvent, characterized in that the compressed gas solvent is capable of being placed under a compressive pressure equal to, or greater than, the compressed gas solvent's vapor pressure at a temperature when the compressive pressure is applied, thereby keeping the compressed gas solvent in a liquid phase, the compressed gas solvent is a saturated or unsaturated hydrocarbon having a halogenated component, and the compressed gas solvent's vapor pressure is higher than 100 kPa (1 atm) pressure but less than 5000 kPa (50 atm); and the compressed gas solvent is capable of being placed under a compressive pressure equal to, or greater than, the compressed gas solvent's vapor pressure at a temperature when the compressive pressure is applied, thereby keeping the compressed gas solvent in a liquid phase, the compressed gas solvent is a saturated or unsaturated hydrocarbon having a halogenated component, and the compressed gas solvent's vapor pressure is higher than 100 kPa (1 atm) pressure but less than 5000 kPa (50 atm); and at least two conducting electrodes in contact with the ionically conducting electrolyte.
A pharmaceutical composition suitable for use in a dry powder inhaler comprising a powder formed of: (i) carrier particles; (ii) active particles adhered on the surface of the carrier particles for release from the carrier particles after inhalation in the respiratory tract; and (iii) wherein the carrier particles have an excipient adhered on the surface for controlling the level of adhesion of the active particles, characterised in that the excipient comprises phytosterol, phytosterol derivative, phytostanol, phytostanol derivative or combinations thereof. (i) carrier particles; (ii) active particles adhered on the surface of the carrier particles for release from the carrier particles after inhalation in the respiratory tract; and (iii) wherein the carrier particles have an excipient adhered on the surface for controlling the level of adhesion of the active particles, characterised in that the excipient comprises phytosterol, phytosterol derivative, phytostanol, phytostanol derivative or combinations thereof.
Electro-hydraulic circuit comprising - a fixed displacement hydraulic pump and an electric motor arranged to drive the hydraulic pump in rotation, - a recovery tank arranged to collect hydraulic oil, - a hydraulic actuator (BUCKET, BOOM, AUX) arranged to move a work member (B, T) and/or an auxiliary device and to be powered by the hydraulic circuit, - a directional open center electro-valve (V1, V2, V3) operatively interposed between said fixed displacement hydraulic pump and said actuator and comprising a released condition in which it isolates the hydraulic actuator by hydraulically connecting the hydraulic pump with the recovery tank, - wherein the electric motor is configured to deactivate when the electro-valve is in released condition, characterised in that the electro-hydraulic circuit further comprises an overpressure valve interposed between the electro-valve and the recovery tank and configured to open when a first predetermined pressure threshold is exceeded and a pressure sensor associated with a portion of the hydraulic circuit comprised between the hydraulic pump and the electro-valve and wherein the pressure sensor is configured, when the electro-valve is in the closed condition, to activate the electric motor when the measured pressure is lower than a second predetermined pressure threshold and subsequently deactivate it when the measured pressure is higher than a third predetermined pressure threshold greater than the second predetermined pressure threshold, less than or equal as the first predetermined pressure threshold. - a fixed displacement hydraulic pump and an electric motor arranged to drive the hydraulic pump in rotation, - a recovery tank arranged to collect hydraulic oil, - a hydraulic actuator (BUCKET, BOOM, AUX) arranged to move a work member (B, T) and/or an auxiliary device and to be powered by the hydraulic circuit, - a directional open center electro-valve (V1, V2, V3) operatively interposed between said fixed displacement hydraulic pump and said actuator and comprising a released condition in which it isolates the hydraulic actuator by hydraulically connecting the hydraulic pump with the recovery tank, - wherein the electric motor is configured to deactivate when the electro-valve is in released condition,