mhurhangee/patent-ind-claim-en huggingface dataset:
A humidification system comprising: a main gases flow path having a main gases flow path inlet and a main gases flow path outlet , a humidification source, wherein the main gases flow path comprises a first portion and a second portion , wherein the first portion comprises a larger cross sectional area than the second portion so that with a flow of gases through the main gases flow path a high pressure region is generated in the first portion and a low pressure region is generated in the second portion , and a low pressure region inlet aperture , the low pressure region inlet aperture being positioned at the low pressure region to allow a gases flow from the humidification source to the main gases flow path , characterised by a high pressure region outlet aperture being positioned at the high pressure region to allow a flow of gases from the main gases flow path to the humidification source. a main gases flow path having a main gases flow path inlet and a main gases flow path outlet , a humidification source, wherein the main gases flow path comprises a first portion and a second portion , wherein the first portion comprises a larger cross sectional area than the second portion so that with a flow of gases through the main gases flow path a high pressure region is generated in the first portion and a low pressure region is generated in the second portion , and a low pressure region inlet aperture , the low pressure region inlet aperture being positioned at the low pressure region to allow a gases flow from the humidification source to the main gases flow path , characterised by a high pressure region outlet aperture being positioned at the high pressure region to allow a flow of gases from the main gases flow path to the humidification source.
A polymer composition (A) for extrusion coating comprising a) 10 to 60 wt-% of low density polyethylene b) 90 to 40 wt-% of a plastomer wherein a) is a low density polyethylene having - a melt flow rate (MFR 2 ), measured according to ISO1133 (190 °C, 2,16 kg load) of 2,5 to 10 g/10min, - a density of 920 kg/m 3 or less, b) is a plastomer of ethylene-octene copolymer and having a density of 880 to 915 kg/m 3 , and where the amounts of a) and b) are based on the total weight of the composition (A). a) 10 to 60 wt-% of low density polyethylene b) 90 to 40 wt-% of a plastomer a) is a low density polyethylene having - a melt flow rate (MFR 2 ), measured according to ISO1133 (190 °C, 2,16 kg load) of 2,5 to 10 g/10min, - a density of 920 kg/m 3 or less, - a melt flow rate (MFR 2 ), measured according to ISO1133 (190 °C, 2,16 kg load) of 2,5 to 10 g/10min, - a density of 920 kg/m 3 or less, b) is a plastomer of ethylene-octene copolymer and having a density of 880 to 915 kg/m 3 , and
A tape cartridge comprising: a casing ; a tape roll formed by winding a fabric tape and rotatably accommodated in the casing; a ribbon roll formed by winding an ink ribbon and rotatably accommodated in the casing; and a tape outlet formed at a most downstream end with respect to a tape conveying path of the fabric tape paid out from the tape roll , the fabric tape being discharged through the tape outlet outside of the casing , wherein the fabric tape includes: heat cutter processed parts positioned at each end portion in a widthwise direction of the fabric tape; and a printing part positioned between the heat cutter processed parts , the fabric tape being in contact with an outer circumferential part of the ribbon roll on a way of conveying the fabric tape along the tape conveying path from the tape roll to the tape outlet. a casing ; a tape roll formed by winding a fabric tape and rotatably accommodated in the casing; a ribbon roll formed by winding an ink ribbon and rotatably accommodated in the casing; and a tape outlet formed at a most downstream end with respect to a tape conveying path of the fabric tape paid out from the tape roll , the fabric tape being discharged through the tape outlet outside of the casing , wherein the fabric tape includes: heat cutter processed parts positioned at each end portion in a widthwise direction of the fabric tape; and a printing part positioned between the heat cutter processed parts , the fabric tape being in contact with an outer circumferential part of the ribbon roll on a way of conveying the fabric tape along the tape conveying path from the tape roll to the tape outlet.
A liquid hand dishwashing cleaning composition comprising: a. from 5% to 50% by weight of the total composition of a surfactant system; b. from 0.05% to 5.0% by weight of polyvinyl alcohol, wherein the polyvinyl alcohol has a viscosity of from 20 mPa.s to 55 mPa.s, when measured as a 4 % aqueous solution at 20 °C in demineralised water, wherein the viscosity of the polyvinyl alcohol aqueous solution is measured using a Brookfield LV type viscometer with UL adapter as described in British Standard EN ISO 15023-2:2006 Annex E Brookfield Test method, and c. at least 15% by weight of water, wherein the surfactant system and the polyvinyl alcohol are present in dissolved form in the aqueous composition. a. from 5% to 50% by weight of the total composition of a surfactant system; b. from 0.05% to 5.0% by weight of polyvinyl alcohol, wherein the polyvinyl alcohol has a viscosity of from 20 mPa.s to 55 mPa.s, when measured as a 4 % aqueous solution at 20 °C in demineralised water, wherein the viscosity of the polyvinyl alcohol aqueous solution is measured using a Brookfield LV type viscometer with UL adapter as described in British Standard EN ISO 15023-2:2006 Annex E Brookfield Test method, and c. at least 15% by weight of water,
A matching structure for use in an ultrasonic transducer , comprising: a mini-horn array comprising: a back plate ; a plurality of horns extending from the back plate , each of the horns comprising: a base adjacent the back plate ; and a neck extending from the base , wherein transverse area of the base is larger than transverse area of the neck; a front plate adjacent the neck of each of the horns ; wherein the back plate , the front plate , and the array of horns are formed in a monolithic body. a back plate ; a plurality of horns extending from the back plate , each of the horns comprising: a base adjacent the back plate ; and a neck extending from the base , wherein transverse area of the base is larger than transverse area of the neck; a base adjacent the back plate ; and a neck extending from the base , wherein transverse area of the base is larger than transverse area of the neck; a front plate adjacent the neck of each of the horns ; wherein the back plate , the front plate , and the array of horns are formed in a monolithic body.
A method (1300; 900) for wireless communication at a user equipment, UE, comprising: generating a Radio Resource Control, RRC, message having a predetermined length for transmission on a common control channel, CCCH, the RRC message including a format field and a UE ID of a type indicated by the format field; and sending (1320; 916) the RRC message and a reserved logical channel identifier, LCID, in a scheduled transmission on an uplink shared channel, UL-SCH, carrying the CCCH for random access by the UE, wherein the reserved LCID indicates the RRC message being sent on the CCCH, and further wherein, when the UE ID is an IMSI or a partial IMSI, the UE ID is conveyed using a binary representation. generating a Radio Resource Control, RRC, message having a predetermined length for transmission on a common control channel, CCCH, the RRC message including a format field and a UE ID of a type indicated by the format field; and sending (1320; 916) the RRC message and a reserved logical channel identifier, LCID, in a scheduled transmission on an uplink shared channel, UL-SCH, carrying the CCCH for random access by the UE, wherein the reserved LCID indicates the RRC message being sent on the CCCH, and further wherein, when the UE ID is an IMSI or a partial IMSI, the UE ID is conveyed using a binary representation.
A liquid discharging device comprising: a carriage carrying a head configured to discharge a liquid onto a target, the liquid comprising an ink, the ink comprising water, an organic solvent, a coloring material, and a plurality of polysiloxane compounds; a driving unit configured to move the carriage and the target relatively to each other; a measuring unit configured to measure a distance between the carriage and the target; an image-capturing unit configured to capture a target image; and a setting unit configured to set a liquid discharging performance of the head based on a measurement result obtained by the measuring unit and the target image obtained by the image-capturing unit , wherein the setting unit includes a first setting unit configured to set a liquid discharging timing of the head based on the measurement result obtained by the measuring unit , and a second setting unit configured to reset the liquid discharging timing of the head or to set a droplet size based on a captured pattern image as the target image obtained by capturing a pattern image formed on the target after the first setting unit sets the liquid discharging timing of the head . a carriage carrying a head configured to discharge a liquid onto a target, the liquid comprising an ink, the ink comprising water, an organic solvent, a coloring material, and a plurality of polysiloxane compounds; a driving unit configured to move the carriage and the target relatively to each other; a measuring unit configured to measure a distance between the carriage and the target; an image-capturing unit configured to capture a target image; and a setting unit configured to set a liquid discharging performance of the head based on a measurement result obtained by the measuring unit and the target image obtained by the image-capturing unit , wherein the setting unit includes a first setting unit configured to set a liquid discharging timing of the head based on the measurement result obtained by the measuring unit , and a second setting unit configured to reset the liquid discharging timing of the head or to set a droplet size based on a captured pattern image as the target image obtained by capturing a pattern image formed on the target after the first setting unit sets the liquid discharging timing of the head .
A method of increasing the productivity, in particular cell-specific productivity, of recombinant factor VIII (rFVIII) produced in a eukaryotic cell suspension during culturing of said eukaryotic cell suspension in a culturing medium containing not more than 500 μM CaCl 2 , at least a non-ionic detergent and other nutrient components needed for the cells to grow and produce rFVIII, characterized in that the said cell suspension is a suspension of human cells and is cultured under conditions inducing a shear stress by mechanical means directly to the suspension of human cells by adding a power density of 50 W/m 3 to 1000 W/m 3 .
A method for producing a solid-state digital detector of incident radiation comprising a photosensitive sensor and a scintillator , comprising: a. a step of growing, on a first substrate , a scintillating substance from the first substrate , capable of converting the incident radiation into a second radiation to which the sensor is sensitive, the scintillating substance comprising an upstream front face in the direction of propagation of the incident radiation, through which the incident radiation passes, and a downstream front face in the direction of propagation of the incident radiation, opposite the upstream front face ; b. a step of holding the scintillator at the downstream front face of the scintillating substance ; c. a step of separating the first substrate from the scintillator , characterised in that the step of separating the first substrate from the scintillator comprises a step of removing a first region from the scintillator which has a thickness less than a predefined nominal thickness . a. a step of growing, on a first substrate , a scintillating substance from the first substrate , capable of converting the incident radiation into a second radiation to which the sensor is sensitive, the scintillating substance comprising an upstream front face in the direction of propagation of the incident radiation, through which the incident radiation passes, and a downstream front face in the direction of propagation of the incident radiation, opposite the upstream front face ; b. a step of holding the scintillator at the downstream front face of the scintillating substance ; c. a step of separating the first substrate from the scintillator ,
A method for the early detection of the risks of failure of a natural or man-made structure , in particular as a result of geological conditions prevailing beneath the structure, characterized by the steps of placing an elongation detector on the structure directly above each of several bearing points of the structure ;and a change in the soil underlying the structure is diagnosed, at least in certain cases where the detected elongations (EA, EB, EC, ED) indicate a change in the distribution of the vertical loads between said several bearing points.
1. A heart valve prosthesis , for the treatment of an insufficient tricuspid valve (TPC), the heart valve prosthesis comprising a stent-type tubular support structure and a biological heart valve , wherein the stent-type support structure is configured to autonomously expand from a radially compressed state into a radially expanded state and has a fluid-tight tubular covering tubularly extending over at least portions of the stent-type support structure, wherein the heart valve is disposed in a lateral opening of the support structure , wherein the support structure forms a tubular wall , characterized in that the lateral opening of the support structure is disposed in a common plane with the tubular wall, and, thus, follows a curvature of the tubular wall, and that the heart valve is fixedly connected with the stent-type tubular support structure within the lateral opening .
An LED power supply circuit comprising: an electric ballast for connection of an array of at least one LED, the electronic ballast having a first connection terminal (LED+) to which the array of at least one LED is connected with an electrode, preferably the anode, and a plurality of second connection terminals (LED-), to which the array of at least one LED can be selectively connected with the second electrode, preferably to the cathode, in order to supply the array of at least one LED with a discrete current intensity corresponding to the selected second terminal (LED-) from the plurality of second terminals, the supply current area being a constant current intensity; characterized in that the plurality of second terminals (LED-) in the electronic ballast are each located at a respective node between a series of resistors (R1 to R4) forming part of the ballast , the circuit further comprising a trimming resistor (R Trim ) connected between two of the plurality of second terminals (LED-), wherein the circuit is arranged to further adjust the selected discrete supply current intensity by means of the trimming resistor, the electronic ballast being arranged to measure a voltage (U I_sense ) dropping across the series of resistors (R1 to R4) for controlling the adjusted discrete supply current intensity for the arrangement of at least one LED. an electric ballast for connection of an array of at least one LED, the electronic ballast having a first connection terminal (LED+) to which the array of at least one LED is connected with an electrode, preferably the anode, and a plurality of second connection terminals (LED-), to which the array of at least one LED can be selectively connected with the second electrode, preferably to the cathode, in order to supply the array of at least one LED with a discrete current intensity corresponding to the selected second terminal (LED-) from the plurality of second terminals, the supply current area being a constant current intensity; characterized in that the plurality of second terminals (LED-) in the electronic ballast are each located at a respective node between a series of resistors (R1 to R4) forming part of the ballast , the circuit further comprising a trimming resistor (R Trim ) connected between two of the plurality of second terminals (LED-), wherein the circuit is arranged to further adjust the selected discrete supply current intensity by means of the trimming resistor, the electronic ballast being arranged to measure a voltage (U I_sense ) dropping across the series of resistors (R1 to R4) for controlling the adjusted discrete supply current intensity for the arrangement of at least one LED.
A method, comprising: forming a plurality of vias through a top layer of a stack that comprises a first dielectric material (D1) at a first layer , a second dielectric material (D2) at a second layer , and a memory material (DM) at a third layer between the first layer and the second layer; forming a first channel in the first dielectric material, the first channel connecting at least two of the plurality of vias; filling the first channel with an electrode material (EM); forming, in the electrode material within the first channel, a second channel that is narrower than the first channel; and filling the second channel with the first dielectric material. forming a plurality of vias through a top layer of a stack that comprises a first dielectric material (D1) at a first layer , a second dielectric material (D2) at a second layer , and a memory material (DM) at a third layer between the first layer and the second layer; forming a first channel in the first dielectric material, the first channel connecting at least two of the plurality of vias; filling the first channel with an electrode material (EM); forming, in the electrode material within the first channel, a second channel that is narrower than the first channel; and filling the second channel with the first dielectric material.
A method for producing a glass ceramic article with locally modified transmittance, wherein light scattering in a first zone of the glass ceramic is higher by not more than 20 percentage points, preferably by not more than 10 percentage points than light scattering in a second zone of the glass ceramic, the method comprising: - providing a glass ceramic article which is volume-coloured by colour centres or colour-imparting ions; and - directing electromagnetic radiation onto a localized surface area of the glass ceramic article, which radiation is absorbed in the volume of the glass ceramic material; and - wherein the power density of the electromagnetic radiation is chosen such that the irradiated region of the glass ceramic article is heated, wherein heating of the irradiated region is performed at least until the absorption coefficient and thus the light transmittance of the glass ceramic material is altered in the volume of the heated region, at least in a spectral range; and wherein - the irradiation of the electromagnetic radiation is terminated after the heating, and the irradiated region is allowed to cool; wherein - the glass ceramic is cooled after the heating at a cooling rate of at least 1 K per second, preferably at least 5 K per second, most preferably at least 10 K per second, at least within a temperature range between the maximum temperature and 100 K below the maximum temperature; and wherein, for producing said cooling rate, the surface of the glass ceramic article is cooled with a cooling fluid during exposure to the electromagnetic radiation. - providing a glass ceramic article which is volume-coloured by colour centres or colour-imparting ions; and - directing electromagnetic radiation onto a localized surface area of the glass ceramic article, which radiation is absorbed in the volume of the glass ceramic material; and - wherein the power density of the electromagnetic radiation is chosen such that the irradiated region of the glass ceramic article is heated, wherein heating of the irradiated region is performed at least until the absorption coefficient and thus the light transmittance of the glass ceramic material is altered in the volume of the heated region, at least in a spectral range; and wherein - the irradiation of the electromagnetic radiation is terminated after the heating, and the irradiated region is allowed to cool; wherein - the glass ceramic is cooled after the heating at a cooling rate of at least 1 K per second, preferably at least 5 K per second, most preferably at least 10 K per second, at least within a temperature range between the maximum temperature and 100 K below the maximum temperature; and wherein, for producing said cooling rate, the surface of the glass ceramic article is cooled with a cooling fluid during exposure to the electromagnetic radiation.
A method for paging at least one client node in a group communications system , the method being performed by a control node of the group communications system , the method comprising: obtaining (S102) a need for paging the at least one client node in the group communications system ; and transmitting (S106) a paging message for the at least one client node on an MBMS bearer to the at least one client node , wherein the paging message indicates that the at least one packet is to be transmitted to the at least one client node over a unicast bearer. obtaining (S102) a need for paging the at least one client node in the group communications system ; and transmitting (S106) a paging message for the at least one client node on an MBMS bearer to the at least one client node , wherein the paging message indicates that the at least one packet is to be transmitted to the at least one client node over a unicast bearer.