mhurhangee/ep-ind-claims huggingface dataset:
A composition for powder coating material comprising the following polyvinylidene fluoride and at least one resin selected from the group consisting of an acrylic resin, a polyester resin and an epoxy resin, wherein the content of the following polyvinylidene fluoride is from 30 to 90 parts by mass in the total of 100 parts by mass of the polyvinylidene fluoride and the resin: Polyvinylidene fluoride: a polyvinylidene fluoride, which is a homopolymer of vinylidene fluoride, and having a melting point of from 152 to 170°C, a crystallinity of from 10 to 35%, wherein the difference between crystallinity during quenching and crystallinity during annealing is at most 3%, as determined by the following method, and a heterologous sequence ratio of from 11 to 37% as determined by the following method: (Method for determining heterologous sequence ratio) 19 F-NMR of the polyvinylidene fluoride is measured by using deuterated N,N-dimethylformamide as a solvent and CFCl 3 as an internal standard, to obtain a spectrum, and the heterologous sequence ratio is calculated by the following formula from the integral value (I 1) of signals derived from regular sequence appearing in the vicinity of -85 to -98 ppm in the obtained spectrum and the integral value (I 2) of signals derived from heterologous sequence appearing in the vicinity of -113 to -120 ppm in the spectrum: Heterologous sequence ratio % = I 2 / I 1 + I 2 × 100 (Method for determining crystallinity) the crystallinity of the polyvinylidene fluoride is calculated by the following formula from the heat of fusion M 1 (J/g) and heat of fusion M 2 of a perfect crystal of polyvinylidene fluoride, wherein the heat of fusion M 1 is calculated from an area of the endothermic peak of a chart obtained by measuring the heat balance in a temperature range of from -25 to 200°C at a temperature raising rate of 10°C/min using a differential scanning calorimeter and the amount of the sample, and wherein the heat of fusion M 2 is 104.5 J/g: Crystallinity % = M 1 / M 2 × 100 wherein for the crystallinity during quenching, the sample is completely dissolved at 300°C, then cooled from 300°C to room temperature at a cooling rate of 10°C/min for re-crystallization, and then heated from room temperature to 200°C at a temperature raising rate of 10°C /min, and wherein the crystallinity during annealing is calculated in the same manner as the crystallinity during quenching, except that the cooling rate as a re-crystallization condition is changed to 0.5°C/min.
A solid blend comprising solid urea-based particles and solid ammonium nitrate-based particles, characterised in that - said ammonium nitrate based particles comprise 0.1-50 weight% of a salt which is able to bind crystallization water, and - said urea-based particles comprise ammonium sulphate, and wherein the parts of said urea based particles comprising ammonium sulphate which are in contact with said ammonium nitrate based particles contain 42% N or less, and wherein the blend contains more than 40 weight % of said urea-based particles comprising ammonium sulphate. - said ammonium nitrate based particles comprise 0.1-50 weight% of a salt which is able to bind crystallization water, and - said urea-based particles comprise ammonium sulphate, and wherein the parts of said urea based particles comprising ammonium sulphate which are in contact with said ammonium nitrate based particles contain 42% N or less, and
A method for preparing granules comprising the steps of A) preparing an adjuvanted slurry by milling an aqueous composition A1 containing a pesticide and a silica absorbent to yield a pesticidal slurry, and adding an adjuvant in liquid form to the pesticidal slurry; and B) granulating the adjuvanted slurry, wherein the granulation comprises a fluidized bed granulation or sprouted bed granulation; and wherein the adjuvant is an alkoxylate and the silica absorbent has an absorbent capacity from 600 to 180 g DBP per 100 g solid carrier (determined by DIN 53601). A) preparing an adjuvanted slurry by milling an aqueous composition A1 containing a pesticide and a silica absorbent to yield a pesticidal slurry, and adding an adjuvant in liquid form to the pesticidal slurry; and B) granulating the adjuvanted slurry, wherein the granulation comprises a fluidized bed granulation or sprouted bed granulation; and
A window or the like, with a locking arrangement, which can be monitored, the wing of which is pivotably mounted on a frame, wherein a locking mechanism with a latch bolt is assigned to the wing to engage in a striking plate assigned to the frame and wherein the engagement of the latch bolt in the striking plate can be detected, wherein a transponder is assigned to the latch bolt and a sensor provided for interacting with the transponder is assigned to the striking plate, characterized in that a plurality of sensors are assigned to the striking plate in positions arranged adjacent to each other, that the transponder is arranged in the latch bolt and that a communicative connection to a bus system is provided, wherein the sensor itself or a processing unit (Transceiver-IC) downstream of the sensor is provided for transferring the datum received into the bus system.
Panel comprising a structured lacquer surface, including a base panel, a melamine resin layer, an adhesion promoter layer and a lacquer-containing top coat, wherein the melamine resin layer is disposed on a surface of the base panel, the adhesion promoter layer is disposed on the melamine resin layer and the lacquer-containing top coat is disposed on the adhesion promoter layer, wherein the lacquer-containing top coat comprises is structured and wherein the base panel comprises a decorative layer comprising a decoration, characterized in that the adhesion promoter layer comprises a cured acid-curable and/or radiation-curable adhesion promoter composition, wherein the adhesion promoter layer comprises a cured acid-curable and/or radiation-curable adhesion promoter composition comprising a polyurethane-modified acrylate-based composition.
A production method for a diamond sintered compact having good electrical conductivity has features wherein: a mixture of a quantity of diamond powder in the range of from 80 to 99.4 wt-%, a quantity of boron powder in the range of from 0.5 to 15 wt-%, and a quantity in the range of from 0.1 to 10 wt-% of an alkaline earth metal carbonate powder comprising one or more of carbonates including alkaline earth metal elements Mg (magnesium), Ca (calcium), Sr (strontium) or Ba (barium), and/or one or more of composite carbonates including two or more of these elements, as a bonding phase component in this sintered compact, is sintered in the HP/HT apparatus; as the first step of this production process the boron component in the mixture is diffused into the diamond powder under the conditions of a pressure in the range of from 5.0 to 8.0 GPa and a temperature in the range of from 1300 to 1800 °C, after that; as the second step, the bonding phase component melts under the conditions of a pressure which is higher than the pressure in the first step in the range of from 6.0 to 9.0 GPa and a temperature which is higher than the temperature in the first step in the range of from 1600 to 2500 °C, and then fills space between the boron-doped diamond powder particles. a mixture of a quantity of diamond powder in the range of from 80 to 99.4 wt-%, a quantity of boron powder in the range of from 0.5 to 15 wt-%, and a quantity in the range of from 0.1 to 10 wt-% of an alkaline earth metal carbonate powder comprising one or more of carbonates including alkaline earth metal elements Mg (magnesium), Ca (calcium), Sr (strontium) or Ba (barium), and/or one or more of composite carbonates including two or more of these elements, as a bonding phase component in this sintered compact, is sintered in the HP/HT apparatus; as the first step of this production process the boron component in the mixture is diffused into the diamond powder under the conditions of a pressure in the range of from 5.0 to 8.0 GPa and a temperature in the range of from 1300 to 1800 °C, after that; as the second step, the bonding phase component melts under the conditions of a pressure which is higher than the pressure in the first step in the range of from 6.0 to 9.0 GPa and a temperature which is higher than the temperature in the first step in the range of from 1600 to 2500 °C, and then fills space between the boron-doped diamond powder particles.
A session wall for use in a computer network facilitating communication sessions between network devices, the session wall comprising: (a) a network adapter for attaching the session wall to the network; (b) data memory for storing data pertinent to the control of at least one of the communication sessions, including a set of access rules; and (c) a processor connected to said data memory and to said network adapter, wherein said processor is arranged to: read a portion of said at least one session by passively listening to a communication on the computer network, wherein passively listening to a communication comprises receiving a data communication not designated for the session wall without interfering with the transmission of that communication to its intended destination; compare said portion with the set of access rules; and when said at least one session is not allowed according to said access rules, issue a message to at least one of the network devices involved in said at least one session, wherein said message is adapted to terminate said at least one session, and wherein said session wall is arranged to inject a succession of further communication messages into the network when said message fails to terminate said at least one session, wherein said succession of further communication messages block transmission by another network device. (a) a network adapter for attaching the session wall to the network; (b) data memory for storing data pertinent to the control of at least one of the communication sessions, including a set of access rules; and (c) a processor connected to said data memory and to said network adapter, wherein said processor is arranged to: read a portion of said at least one session by passively listening to a communication on the computer network, wherein passively listening to a communication comprises receiving a data communication not designated for the session wall without interfering with the transmission of that communication to its intended destination; compare said portion with the set of access rules; and when said at least one session is not allowed according to said access rules, issue a message to at least one of the network devices involved in said at least one session, wherein said message is adapted to terminate said at least one session, and read a portion of said at least one session by passively listening to a communication on the computer network, wherein passively listening to a communication comprises receiving a data communication not designated for the session wall without interfering with the transmission of that communication to its intended destination; compare said portion with the set of access rules; and when said at least one session is not allowed according to said access rules, issue a message to at least one of the network devices involved in said at least one session, wherein said message is adapted to terminate said at least one session, and
A process for preparing a milk protein hydrolysate comprising hydrolysing a milk-based proteinaceous material with a microbial alkaline serine protease in combination with bromelain, a protease from Aspergillus and a protease from Bacillus.
An electronic communication unit for an electronic communication device (10, 20, 30), the electronic communication unit being adapted for Body Coupled Communication and capacitance measurement in close proximity to a person's body and comprising an antenna (13, 13A) adapted for the BCC, and a capacitance sensor (13, 13A), wherein the antenna (13, 13A) and the capacitance sensor (13, 13A) are one and the same entity adapted to be utilized as one common electrode for both the BCC and body capacitance measurement, characterized in that the capacitance sensor is adapted for detecting if a capacitance belongs to a predefined capacitance interval or range indicating that the electronic communication unit is in close proximity to the head or other body part of the person or even in at least partial contact with the body or not, the electronic communication unit comprising processing circuitry in operational connection with the antenna and the sensor for control of the BCC and capacitance measurement, said processing circuitry comprising differing impedances when using the common electrode (13, 13A) for body capacitance measurement and when using the common electrode (13, 13A) for BCC.
Pluggable data store having a housing and an electrical connector, by which an electrical connection to another object can be established, wherein the housing comprises a push-pull device, wherein the push-pull device comprises two spacer elements and a pushing-surface element, wherein the assembly of the two spacer elements, the pushing-surface element and the housing forms an in particular torsionally rigid pulling lug, wherein the pushing-surface element is configured as a planar surface, wherein the planar surface is arranged orthogonally to both the direction of pull and the direction of push, wherein at least the part of the surface of the housing that is spatially closest to the pushing-surface element has a structure, wherein said structure is configured as a groove-shaped and/or stud-shaped projection, characterised in that the pushing-surface element has an inscription, wherein the spacer elements are formed in an L shape, in particular by reducing the height of the spacer elements in parts, in a manner visible in a side view, compared with the rest of the housing and the pushing-surface element. a housing and an electrical connector, by which an electrical connection to another object can be established, wherein the housing comprises a push-pull device, wherein the push-pull device comprises two spacer elements and a pushing-surface element, wherein the assembly of the two spacer elements, the pushing-surface element and the housing forms an in particular torsionally rigid pulling lug, wherein the pushing-surface element is configured as a planar surface, wherein the planar surface is arranged orthogonally to both the direction of pull and the direction of push, wherein at least the part of the surface of the housing that is spatially closest to the pushing-surface element has a structure, wherein said structure is configured as a groove-shaped and/or stud-shaped projection, characterised in that the pushing-surface element has an inscription, wherein the spacer elements are formed in an L shape, in particular by reducing the height of the spacer elements in parts, in a manner visible in a side view, compared with the rest of the housing and the pushing-surface element.
Magnetron assembly, comprising: • a bearing assembly comprising a carrier for rotatably supporting a tubular target into which the carrier is extended; • a magnet system group comprising multiple magnets and an electrical actuator, the actuator being configured to adjust a position of the several magnets relative to the carrier in response to an electrical control signal supplied to the actuator; • an electrical generator configured to convert a rotational motion of the target into electrical power and supply it to the actuator; characterized in that the magnetron assembly further comprises: • a communication interface configured to supply the electrical control signal to the actuator in a clocked manner according to the rotational motion of the target; • wherein the communication interface comprises a rotary capacitor coupled to the rotational motion. • a bearing assembly comprising a carrier for rotatably supporting a tubular target into which the carrier is extended; • a magnet system group comprising multiple magnets and an electrical actuator, the actuator being configured to adjust a position of the several magnets relative to the carrier in response to an electrical control signal supplied to the actuator; • an electrical generator configured to convert a rotational motion of the target into electrical power and supply it to the actuator; • a communication interface configured to supply the electrical control signal to the actuator in a clocked manner according to the rotational motion of the target; • wherein the communication interface comprises a rotary capacitor coupled to the rotational motion.
A method for determining the concentration of oxidized nanofibrillar cellulose in an analytical sample, the method comprising the steps of (a) providing an analytical sample of material comprising oxidized nanofibrillar cellulose; (b) hydrolyzing the analytical sample to breakdown products of oxidized nanofibrillar cellulose in presence of one or more enzymes; (c) subjecting the breakdown products to a separation analysis which is an analytical chromatography to separate oxidized cellobioses and monosaccharides to reveal the relative amounts of the breakdown products; and (d) determining the concentration of oxidized nanofibrillar cellulose, wherein the concentration of oxidized nanofibrillar cellulose is determined by comparing the relative amounts of oxidized cellobioses in the analytical sample to standard samples or an internal standard. (a) providing an analytical sample of material comprising oxidized nanofibrillar cellulose; (b) hydrolyzing the analytical sample to breakdown products of oxidized nanofibrillar cellulose in presence of one or more enzymes; (c) subjecting the breakdown products to a separation analysis which is an analytical chromatography to separate oxidized cellobioses and monosaccharides to reveal the relative amounts of the breakdown products; and (d) determining the concentration of oxidized nanofibrillar cellulose,
A current/voltage control apparatus configured to control an output current and an output voltage of at least one terminal converter (2, 3) in a DC system including the at least one terminal converter (2, 3) interconnected to a terminal of a DC cable, at least one load facility interconnected to the DC cable, and at least one power generation facility interconnected to the DC cable, characterised in that the current/voltage control apparatus comprises: a central monitoring control device configured to control V-I characteristics of the terminal converter (2, 3) based on power consumption consumed by the load facility and generated power generated by the power generation facility, wherein the central monitoring control device includes a load result DB configured to accumulate the power consumption by associating with the load facility, a power generation result DB configured to accumulate the generated power by associating with the power generation facility, a prediction unit configured to predict a change range of the power consumption in a predetermined period based on the power consumption at this time and the power consumption accumulated in the load result DB and also to predict a change range of the generated power in the period based on the generated power at this time and the generated power accumulated in the power generation result DB, and a V-I characteristic determination unit configured to determine the V-I characteristics of the terminal converter (2, 3) based on the change range of the power consumption and the change range of the generated power predicted by the prediction unit. a central monitoring control device configured to control V-I characteristics of the terminal converter (2, 3) based on power consumption consumed by the load facility and generated power generated by the power generation facility, wherein the central monitoring control device includes a load result DB configured to accumulate the power consumption by associating with the load facility, a power generation result DB configured to accumulate the generated power by associating with the power generation facility, a prediction unit configured to predict a change range of the power consumption in a predetermined period based on the power consumption at this time and the power consumption accumulated in the load result DB and also to predict a change range of the generated power in the period based on the generated power at this time and the generated power accumulated in the power generation result DB, and a V-I characteristic determination unit configured to determine the V-I characteristics of the terminal converter (2, 3) based on the change range of the power consumption and the change range of the generated power predicted by the prediction unit.
An apparatus for use in a downhole environment, comprising: a bearing assembly, a housing and a shaft, wherein the shaft has a shaft axis, wherein the shaft is rotatably connected with the housing, wherein the housing defines an interior of the housing, an exterior of the housing and a first housing end, wherein the shaft is comprised of a shaft extension which extends from the interior of the housing at the first housing end, and wherein the shaft extension defines a first bearing shaft surface, the bearing assembly comprising a first thrust bearing for transferring a first axial load between the shaft and the housing, wherein the first thrust bearing is located axially between the first housing end and the first bearing shaft surface, characterised in that the first thrust bearing is a curved bearing.