mhurhangee/patent-ind-claim-en huggingface dataset:
Use of a composition comprising a cationized hydroxypropyl cellulose (A) and at least one treating agent (B) selected from a hair-coloring dye, an oxidizing agent, an alkali agent and a keratin-reducing agent, wherein the cationized hydroxypropyl cellulose (A) has an anhydroglucose-derived main chain represented by the following general formula , and has a degree of substitution with cationized ethyleneoxy group of from 0.01 to 2.9 and a degree of substitution with propyleneoxy group of from 0.1 to 4.0: wherein R 1 , R 2 and R 3 each independently represent a substituent having a cationized ethyleneoxy group and a propyleneoxy group represented by the following general formula ; n indicates a mean degree of polymerization of anhydroglucose and is a number of from 50 to 5000, wherein one of Y 1 and Y 2 is a hydrogen atom and the other is a cationic group represented by the following general formula ; PO represents a propyleneoxy group; p indicates the number of cationized ethyleneoxy groups ((-CH(Y 1 )-CH (Y 2 )-O-) in the general formula and q indicates the number of propyleneoxy groups (-PO-) therein, each being 0 or a positive integer; in case where both of p and q are not 0, the addition sequence of the cationized ethyleneoxy group and the propyleneoxy group is not defined, and in case where p and/or q are/is 2 or more, a binding form may be any of like a block co-polymer or like a random co-polymer, wherein R 4 , R 5 and R 6 each independently represent a linear or branched alkyl group having from 1 to 3 carbon atoms; X - represents an anionic group as a hair treatment agent.
A method for communication beam transition in a multiple-input multiple-output, MIMO, communication system, comprising: exchanging information between a first communication device (105; 115) and a second communication device (115; 105) on a first communication beam ; receiving beam information on the first communication device (105; 115) from the second communication device (115; 105) on the first communication beam ; sending from the first communication device (105; 115) to the second communication device (115; 105) a beam switch command on the first communication beam , the beam switch command requesting a transition from the first communication beam to a second communication beam ; simultaneously sending information from the first communication device (105; 115) to the second communication device (115; 105) on the first communication beam and the second communication beam by synthesizing a distorted communication beam having the first communication beam and the second communication beam; and ceasing sending information from the first communication device to the second communication device on the first communication beam when transition to the second communication beam is completed by the first communication device and the second communication device. exchanging information between a first communication device (105; 115) and a second communication device (115; 105) on a first communication beam ; receiving beam information on the first communication device (105; 115) from the second communication device (115; 105) on the first communication beam ; sending from the first communication device (105; 115) to the second communication device (115; 105) a beam switch command on the first communication beam , the beam switch command requesting a transition from the first communication beam to a second communication beam ; simultaneously sending information from the first communication device (105; 115) to the second communication device (115; 105) on the first communication beam and the second communication beam by synthesizing a distorted communication beam having the first communication beam and the second communication beam; and ceasing sending information from the first communication device to the second communication device on the first communication beam when transition to the second communication beam is completed by the first communication device and the second communication device.
Wastewater system accelerator comprising an in-line lifting station which is followed by a closed regulation chamber in the desired direction of the water flow, the regulation chamber comprising a gravel trap which is connected to an adaptive pump which is equipped with a frequency converter, the regulation chamber being equipped with a probe for continuously measuring the water level therein, which probe is capable of electronically communicating the water level to the frequency converter, characterized in that the probe is piezometric and is suspended from the cover of the regulation chamber, in a protective tube which is notched in a herringbone pattern that protects the probe.
A lubricant composition comprising a lubricant base oil (A) and a sulfur-based extreme pressure agent (B), wherein the amount of active sulfur in the extreme pressure agent is from 5% to 30% by weight, and the content of the extreme pressure agent in the composition is from 5% to 15% by weight based on the total weight of the lubricant composition, and the lubricant base oil (A) has a kinematic viscosity at 100 °C of 3 to 40 mm 2 /s, wherein the amount of active sulfur is measured according to ASTM D1662 and the kinematic viscosity at 100 °C is measured according to ASTM D445. the amount of active sulfur in the extreme pressure agent is from 5% to 30% by weight, and the content of the extreme pressure agent in the composition is from 5% to 15% by weight based on the total weight of the lubricant composition, and the lubricant base oil (A) has a kinematic viscosity at 100 °C of 3 to 40 mm 2 /s, wherein the amount of active sulfur is measured according to ASTM D1662 and the kinematic viscosity at 100 °C is measured according to ASTM D445. the amount of active sulfur is measured according to ASTM D1662 and the kinematic viscosity at 100 °C is measured according to ASTM D445.
A computer-implemented method comprising: activating , using one or more computing devices, an audio source being an audio or video player associated with a graphical user interface , the audio source having an initial location associated with the graphical user interface , wherein the initial location is a location on the graphical user interface; sensing , using the one or more computing devices, a displacement of the audio source with respect to the initial location to a second location associated with the graphical user interface, the displacement of the audio source being based on a scrolling operation; determining , using the one or more computing devices, that the displacement of the audio source exceeds a first predetermined threshold distance; in response to determining that the displacement of the audio source exceeds the first predetermined threshold distance but does not exceed a second predetermined threshold distance, adjusting , using the one or more computing devices, a level of audio associated with the audio source , wherein adjusting the level of audio includes reducing the audio level as the displacement increases and increasing the audio level as the displacement decreases; determining, using the one or more computing devices, that the displacement of the audio source based on a scrolling operation exceeds the second predetermined threshold distance; and in response to determining that the displacement of the audio source exceeds the second predetermined threshold distance, muting, using the one or more computing devices, the audio associated with the audio source. activating , using one or more computing devices, an audio source being an audio or video player associated with a graphical user interface , the audio source having an initial location associated with the graphical user interface , wherein the initial location is a location on the graphical user interface; sensing , using the one or more computing devices, a displacement of the audio source with respect to the initial location to a second location associated with the graphical user interface, the displacement of the audio source being based on a scrolling operation; determining , using the one or more computing devices, that the displacement of the audio source exceeds a first predetermined threshold distance; in response to determining that the displacement of the audio source exceeds the first predetermined threshold distance but does not exceed a second predetermined threshold distance, adjusting , using the one or more computing devices, a level of audio associated with the audio source , wherein adjusting the level of audio includes reducing the audio level as the displacement increases and increasing the audio level as the displacement decreases; determining, using the one or more computing devices, that the displacement of the audio source based on a scrolling operation exceeds the second predetermined threshold distance; and in response to determining that the displacement of the audio source exceeds the second predetermined threshold distance, muting, using the one or more computing devices, the audio associated with the audio source.
A method of predicting, before seroconversion, a risk of a subject for Type 1 diabetes (T1D) comprising the following steps: a) determining a gene expression profile of at least FOLR3 in a sample obtained from said subject, and b) using said gene expression profile for the prediction of the probability of the subject to develop T1D. a) determining a gene expression profile of at least FOLR3 in a sample obtained from said subject, and b) using said gene expression profile for the prediction of the probability of the subject to develop T1D.
A pipe joint apparatus comprising an insertion part into which a pipe (P) is inserted and a jaw (J) which is mounted on a jaw holder (C2), disposed to surround the circumference of the insertion part, and configured to fix the pipe (P) by tightening the outer surface of the pipe (P), wherein the jaw (J) comprises: a body part coupled to the jaw holder (C2); a blade part provided on one side of the body part , and including a plurality of blades; a chamfered part provided at the front of the blade part , and chamfered at a predetermined angle; and a front surface part connected to the chamfered part , and formed perpendicular to the insertion direction of the pipe (P), characterized in that the jaw (J) further comprises a coating part formed on the outer surfaces of the body part , the blade part and the front surface part , wherein the coating part comprises a first coating layer made of zinc (Zn), a second coating layer stacked on the first coating layer and made of an alloy of Zn and copper (Cu), a third coating layer stacked on the second coating layer and made of Cu, and a fourth coating layer stacked on the third coating layer and made of nickel (Ni). a body part coupled to the jaw holder (C2); a blade part provided on one side of the body part , and including a plurality of blades; a chamfered part provided at the front of the blade part , and chamfered at a predetermined angle; and a front surface part connected to the chamfered part , and formed perpendicular to the insertion direction of the pipe (P), characterized in that the jaw (J) further comprises a coating part formed on the outer surfaces of the body part , the blade part and the front surface part , wherein the coating part comprises a first coating layer made of zinc (Zn), a second coating layer stacked on the first coating layer and made of an alloy of Zn and copper (Cu), a third coating layer stacked on the second coating layer and made of Cu, and a fourth coating layer stacked on the third coating layer and made of nickel (Ni). the jaw (J) further comprises a coating part formed on the outer surfaces of the body part , the blade part and the front surface part , wherein the coating part comprises a first coating layer made of zinc (Zn), a second coating layer stacked on the first coating layer and made of an alloy of Zn and copper (Cu), a third coating layer stacked on the second coating layer and made of Cu, and a fourth coating layer stacked on the third coating layer and made of nickel (Ni).
An agricultural baler including a baling chamber , comprising a system for estimating the length of bales of crop material during bale formation, wherein the bale of crop material is formed from a plurality bale charges separately delivered into the baling chamber , the agricultural baler further comprising a plunger configured to be actuated relative to the baling chamber in a baling direction as each bale charge of the plurality of bale charges is delivered into the baling chamber to compress each said bale charge into the bale of crop material being formed within the baling chamber , the system being characterized by ; a radar-based length sensor provided in operative association with the baling chamber , the length sensor configured to transmit radar waves towards a bale of crop material being formed within the baling chamber and receive return waves corresponding to the radar waves as reflected off the bale of crop material ; and a controller communicatively coupled to the length sensor , the controller being configured to, based at least in part on radar data associated with the return waves received by the length sensor , determine a movement velocity of the bale of crop material within the baling chamber with each actuation of the plunger relative to the baling chamber in the baling direction , and estimate a current length of the bale of crop material being formed within the baling chamber . a radar-based length sensor provided in operative association with the baling chamber , the length sensor configured to transmit radar waves towards a bale of crop material being formed within the baling chamber and receive return waves corresponding to the radar waves as reflected off the bale of crop material ; and a controller communicatively coupled to the length sensor , the controller being configured to, based at least in part on radar data associated with the return waves received by the length sensor , determine a movement velocity of the bale of crop material within the baling chamber with each actuation of the plunger relative to the baling chamber in the baling direction , and estimate a current length of the bale of crop material being formed within the baling chamber . determine a movement velocity of the bale of crop material within the baling chamber with each actuation of the plunger relative to the baling chamber in the baling direction , and estimate a current length of the bale of crop material being formed within the baling chamber .
A control method of an internal combustion engine mounted on a vehicle and comprising an exhaust gas recirculation device , the internal combustion engine having: a first output limit (P1) which is associated with at least a knock limit and whose value increases with increase of an exhaust gas recirculation rate; and a second output limit (P2; P3) which is associated with an output limiting factor including an atmospheric pressure or vehicle running speed and whose value decreases with decrease of the output limiting factor and with increase of the exhaust gas recirculation rate, the control method comprising setting a target exhaust gas recirculation rate at which the first output limit (P1) becomes equal to the second output limit (P2, P3) and controlling the exhaust recirculation device according to the target exhaust gas recirculation rate. the internal combustion engine having: a first output limit (P1) which is associated with at least a knock limit and whose value increases with increase of an exhaust gas recirculation rate; and a second output limit (P2; P3) which is associated with an output limiting factor including an atmospheric pressure or vehicle running speed and whose value decreases with decrease of the output limiting factor and with increase of the exhaust gas recirculation rate, the control method comprising setting a target exhaust gas recirculation rate at which the first output limit (P1) becomes equal to the second output limit (P2, P3) and controlling the exhaust recirculation device according to the target exhaust gas recirculation rate.
Catalyst system for a continuous synthesis gas-to-dimethyl ether process, comprising two spatially separated subsequent catalyst layers 1 and 2 in flow direction, the catalyst layers 1 and 2 having a volume ratio of from 9:1 to 1:9, catalyst layer 1 being formed of a packed bed of synthesis gas-to-methanol catalyst 1 particles or an admixture of catalyst 1 particles and inert 1 particles in a weight ratio of from 1:4 to 4:1, catalyst 1 particles comprising based on the total weight of catalyst 1 particles, which is 100 weight-%, 30 to 70 weight-% CuO, 10 to 30 weight-% ZnO, 10 to 30 weight-% Al 2 O 3 , 0 or from 0.5 to 5 weight-% ZrO 2 , 0 to 7 weight-% of further additives, inert 1 particles comprising Al 2 O 3 , catalyst layer 2 being formed of a packed bed of an admixture of catalyst 1 particles and methanol-to-dimethyl ether catalyst 2 particles in a weight ratio of from 1:9 to 9:1, catalyst 2 particles being formed of an acidic aluminosilicate zeolite with a SiO 2 :Al 2 O 3 molar ratio of from 10 to 1500:1 of framework type MFI, comprising based on the total weight of catalyst 2 particles, which is 100 weight-%, 10 to 90 weight-% of at least one binder material, selected from Al 2 O 3 , SiO 2 , TiO 2 and ZrO 2 , and 0.01 to 20 weight-% of copper, wherein the catalyst system is suitable for being employed in one or more containments, which allow for the spacial separation of the subsequent catalyst layers 1 and 2, the containment having at least two sections in which the catalyst layers 1 and 2 are located, and the two sections being linked in a way that the reactants can flow from catalyst layer 1 to catalyst layer 2. catalyst layer 1 being formed of a packed bed of synthesis gas-to-methanol catalyst 1 particles or an admixture of catalyst 1 particles and inert 1 particles in a weight ratio of from 1:4 to 4:1, catalyst 1 particles comprising based on the total weight of catalyst 1 particles, which is 100 weight-%, 30 to 70 weight-% CuO, 10 to 30 weight-% ZnO, 10 to 30 weight-% Al 2 O 3 , 0 or from 0.5 to 5 weight-% ZrO 2 , 0 to 7 weight-% of further additives, inert 1 particles comprising Al 2 O 3 , catalyst layer 2 being formed of a packed bed of an admixture of catalyst 1 particles and methanol-to-dimethyl ether catalyst 2 particles in a weight ratio of from 1:9 to 9:1, catalyst 2 particles being formed of an acidic aluminosilicate zeolite with a SiO 2 :Al 2 O 3 molar ratio of from 10 to 1500:1 of framework type MFI, comprising based on the total weight of catalyst 2 particles, which is 100 weight-%, 10 to 90 weight-% of at least one binder material, selected from Al 2 O 3 , SiO 2 , TiO 2 and ZrO 2 , and 0.01 to 20 weight-% of copper, wherein the catalyst system is suitable for being employed in one or more containments, which allow for the spacial separation of the subsequent catalyst layers 1 and 2, the containment having at least two sections in which the catalyst layers 1 and 2 are located, and the two sections being linked in a way that the reactants can flow from catalyst layer 1 to catalyst layer 2.
Flat conductor connection element for an electrically conductive structure , in particular an electrically conductive layer, applied to a pane , with the flat conductor connection element comprising - at least one conductor , comprising a flat conductor , having a first connection region at a first end and a second connection region at a second end , wherein the first connection region has a connection surface for the electrical connection to the electrically conductive structure and a contact surface opposite the connection surface for physical contact with a soldering tool, - an encapsulation layer made of an electrically insulating material, which encapsulation layer surrounds the conductor at least in a conductor section containing the first connection region , wherein the encapsulation layer has a through-hole , wherein the flat conductor element is characterized in that through the through-hole the connection surface and the contact surface of the first connection region are accessible, wherein, in a view perpendicular through the plane of the encapsulation layer , the first connection region of the conductor is situated within the through-hole . - at least one conductor , comprising a flat conductor , having a first connection region at a first end and a second connection region at a second end , wherein the first connection region has a connection surface for the electrical connection to the electrically conductive structure and a contact surface opposite the connection surface for physical contact with a soldering tool, - an encapsulation layer made of an electrically insulating material, which encapsulation layer surrounds the conductor at least in a conductor section containing the first connection region , wherein the encapsulation layer has a through-hole ,
A functional layer forming composition, which is a functional layer forming composition to be used when at least one layer in a functional layer containing an organic material is formed by a liquid phase process, characterized in that the composition comprises: a solid component for forming a functional layer ; a first aromatic solvent having an electron withdrawing group; and a second aromatic solvent having an electron donating group, wherein the solid component is dissolved in the first and second aromatic solvents, and the boiling point of the second aromatic solvent is higher than the boiling point of the first aromatic solvent, and the electron withdrawing group is a nitro group. the composition comprises: a solid component for forming a functional layer ; a first aromatic solvent having an electron withdrawing group; and a second aromatic solvent having an electron donating group, wherein the solid component is dissolved in the first and second aromatic solvents, and a solid component for forming a functional layer ; a first aromatic solvent having an electron withdrawing group; and a second aromatic solvent having an electron donating group, wherein the solid component is dissolved in the first and second aromatic solvents, and the boiling point of the second aromatic solvent is higher than the boiling point of the first aromatic solvent, and the electron withdrawing group is a nitro group.