mhurhangee/patent-ind-claim-en huggingface dataset:
A polyurethane, in particular thermoplastic polyurethane, obtainable or obtained by reacting at least the components (i) to (iii): (i) a polyisocyanate composition; (ii) a polyol composition, comprising (ii.1) at least one polyester diol or polyether diol having a number-average molecular weight in the range from 500 to 3000 g/mol, (ii.2) at least one polysiloxane of general formula I where n is an integer in the range from 1 to 250, A and B are independently selected from the group of the C1-C20-alkyl groups, where X 1 of the polysiloxane as per (ii.2) is a (CH 2 -CH 2 -O) m group or a (CH 2 -CH 2 -CH 2 -O) m group or a (CH 2 -CHCH 3 -O) m group, X 2 of the polysiloxane as per (ii.2) is a (CH 2 -CHCH 3 -O) m group or an (O-CH 2 -CH 2 ) m group or an (O-CH 2 -CH 2 -CH 2 ) m group, where m for X 1 , X 2 in each case independently is an integer in the range from 2 to 20; and Y 1 and Y 2 are both a hydroxyl group; wherein the at least one polysiloxane as per (ii.2) is present in a proportion in the range from 5% to 20% by weight, based on the total weight of all of components (ii.1) and (ii.2); (iii) a chain extender composition. (i) a polyisocyanate composition; (ii) a polyol composition, comprising (ii.1) at least one polyester diol or polyether diol having a number-average molecular weight in the range from 500 to 3000 g/mol, (ii.2) at least one polysiloxane of general formula I where n is an integer in the range from 1 to 250, A and B are independently selected from the group of the C1-C20-alkyl groups, where X 1 of the polysiloxane as per (ii.2) is a (CH 2 -CH 2 -O) m group or a (CH 2 -CH 2 -CH 2 -O) m group or a (CH 2 -CHCH 3 -O) m group, X 2 of the polysiloxane as per (ii.2) is a (CH 2 -CHCH 3 -O) m group or an (O-CH 2 -CH 2 ) m group or an (O-CH 2 -CH 2 -CH 2 ) m group, where m for X 1 , X 2 in each case independently is an integer in the range from 2 to 20; and Y 1 and Y 2 are both a hydroxyl group; wherein the at least one polysiloxane as per (ii.2) is present in a proportion in the range from 5% to 20% by weight, based on the total weight of all of components (ii.1) and (ii.2); (ii.1) at least one polyester diol or polyether diol having a number-average molecular weight in the range from 500 to 3000 g/mol, (ii.2) at least one polysiloxane of general formula I where n is an integer in the range from 1 to 250, A and B are independently selected from the group of the C1-C20-alkyl groups, where X 1 of the polysiloxane as per (ii.2) is a (CH 2 -CH 2 -O) m group or a (CH 2 -CH 2 -CH 2 -O) m group or a (CH 2 -CHCH 3 -O) m group, X 2 of the polysiloxane as per (ii.2) is a (CH 2 -CHCH 3 -O) m group or an (O-CH 2 -CH 2 ) m group or an (O-CH 2 -CH 2 -CH 2 ) m group, where m for X 1 , X 2 in each case independently is an integer in the range from 2 to 20; and Y 1 and Y 2 are both a hydroxyl group; wherein the at least one polysiloxane as per (ii.2) is present in a proportion in the range from 5% to 20% by weight, based on the total weight of all of components (ii.1) and (ii.2); (iii) a chain extender composition.
Sensor circuit arrangement having a resistance sensor (RT), at least one switching sensor (S1, S10, S20, S30) and at least one auxiliary resistor (R1, R10, R20, R30) that form a circuit with a total resistance (RG), wherein the total resistance (RG) is dependent firstly on the resistance value of the auxiliary resistor (R1, R10, R20, R30) in combination with the switching state of the switching sensor (S1, S10, S20, S30) and secondly on the resistance value of the resistance sensor (RT), and wherein the resistance sensor (RT) is a temperature sensor.
A hinge for pivotably holding a substantially flat section, in particular a door leaf of a shower enclosure on a building section or a partition wall section of a shower enclosure or the like, wherein the hinge has a first hinge strip with a sleeve (1.1) for the building section or the partition wall section and a second hinge strip for the door leaf, and the two hinge strips are connected to one another pivotably by a hinge pin provided with a closing mechanism consisting of a lifting/lowering mechanism (x), characterized in that the hinge pin is operatively connected to a stop damper, wherein the stop damper is formed by a damper , a force distributor connected thereto and a driver which are arranged in the sleeve (1.1) of the hinge part , wherein the driver is mounted to be linearly moveable and non-rotatable via the hinge pin , and the damper with the force distributor is securely integrated into the hinge strip .
A method for preparing a co-crystal of at least two compounds bound through hydrogen bonds, ionic bonds, bonds of the stacking type (π- π stacking) or Van der Waals bonds, comprising the successive steps: ▪ preparation of at least two solutions, each comprising at least one solvent and at least one organic, mineral or organometal compound, these compounds may be bound through hydrogen bonds, ionic bonds, bonds of the stacking type (π- π stacking) or through Van der Waals bonds; ▪ heating the solutions, under a pressure ranging from 3 to 300 bars, at a temperature above the boiling point of the solvent or at a temperature above the boiling point of the mixture of solvents; ▪ atomization in a same atomization chamber of each solution by means of at least one dispersion device and under an angle ranging from 30 to 150° at a pressure ranging from 0.0001 to 2 bars, the dispersion devices being two hollow cone nozzles installed side by side in the atomization chamber, each equipped with an electric heating system and oriented relatively to each other so that their jets interpenetrate each other; ▪ separation of the solvents in a gaseous form. ▪ preparation of at least two solutions, each comprising at least one solvent and at least one organic, mineral or organometal compound, these compounds may be bound through hydrogen bonds, ionic bonds, bonds of the stacking type (π- π stacking) or through Van der Waals bonds; ▪ heating the solutions, under a pressure ranging from 3 to 300 bars, at a temperature above the boiling point of the solvent or at a temperature above the boiling point of the mixture of solvents; ▪ atomization in a same atomization chamber of each solution by means of at least one dispersion device and under an angle ranging from 30 to 150° at a pressure ranging from 0.0001 to 2 bars, the dispersion devices being two hollow cone nozzles installed side by side in the atomization chamber, each equipped with an electric heating system and oriented relatively to each other so that their jets interpenetrate each other; ▪ separation of the solvents in a gaseous form.
An austenitic alloy pipe, comprising a chemical composition consisting of: in mass%, C: 0.004 to 0.030%, Si: 1.00% or less, Mn: 0.30 to 2.00%, P: 0.030 or less, S: 0.0020% or less, Al: 0.001 to 0.100%, Cu: 0.50 to 1.50%, Ni: 25.00 to 55.00%, Cr: 20.00 to 30.00%, Mo: 2.00 to 10.00%, N: 0.005 to 0.100%, Ti: 0 to 0.800%, W: 0 to 0.30%, Nb: 0 to 0.050%, Ca: 0 to 0.0100%, Mg: 0 to 0.0100%, and Nd: 0 to 0.050%, with the balance being Fe and impurities, wherein an average value of grain size number of austenite crystal grain conforming to ASTM E112 is 2.0 to 7.0 and a mixed grain ratio measured according to the chapter "Measurement method of mixed grain ratio" of the description is not more than 5%, wherein when a yield strength obtained by a compression test conforming to ASTM E9-09 is defined as a compressive YS (MPa) and a yield strength obtained by a tensile test conforming to ASTM E8M-16a as a tensile YS (MPa), the tensile YS is not less than 758 MPa and the compressive YS/tensile YS is 0.85 to 1.10, and wherein the austenitic alloy pipe has an outer diameter of not less than 170 mm.
A camera shooting program control method, characterized in that the method is applied to terminal equipment, and comprises: obtaining (S101) motion parameters collected by at least one motion sensor in response to a situation wherein the terminal equipment enters a camera shooting program from a screen locking state, and determining a motion state of the terminal equipment according to the motion parameters collected by the at least one motion sensor; obtaining (S102) a mistaken touch rate of a display screen of the terminal equipment in response to a motion state of the terminal equipment being a moving state, wherein the mistaken touch rate is a proportion of a number of mistaken touch of the display screen to a number of touch control of the display screen, the number of touch control of the display screen is the sum of a number of normal touch and a number of mistaken touch, touch for the control in a picture of the display screen is the normal touch, and touch for an area outside the control in the picture of the display screen is the mistaken touch; and exiting (S103) the camera shooting program in response to a condition wherein the mistaken touch rate is greater than a preset first proportion threshold value. obtaining (S101) motion parameters collected by at least one motion sensor in response to a situation wherein the terminal equipment enters a camera shooting program from a screen locking state, and determining a motion state of the terminal equipment according to the motion parameters collected by the at least one motion sensor; obtaining (S102) a mistaken touch rate of a display screen of the terminal equipment in response to a motion state of the terminal equipment being a moving state, wherein the mistaken touch rate is a proportion of a number of mistaken touch of the display screen to a number of touch control of the display screen, the number of touch control of the display screen is the sum of a number of normal touch and a number of mistaken touch, touch for the control in a picture of the display screen is the normal touch, and touch for an area outside the control in the picture of the display screen is the mistaken touch; and exiting (S103) the camera shooting program in response to a condition wherein the mistaken touch rate is greater than a preset first proportion threshold value.
A ground electrical connection device for a wire clamp , the device comprising a ground connection part , and a bearing part , the ground connection part being provided to be sandwiched between the wire clamp and the bearing part and held in contact with the wire clamp , characterized in that the ground connection part is made of a non-magnetic material, with a layer of a protective material deposited on the surface of the ground connection part , wherein a layer of a bonding material is deposited on the surface of the ground connection part , between the non-magnetic material and the protective material layer.
A vehicle door latch release device comprising an operating member for latch release that is operated by a vehicle user in order to release a latched state of a door (D), an electric actuator that is operated in response to the operating member for latch release being operated, a latch device that is provided on the door (D) so as to enable latch release in response to operation of the electric actuator and mechanical input of a latch release operating force, input of a mechanical latch release operating force into the latch device being enabled in an emergency in which latch release by the electric actuator is disabled, and further comprising an emergency operating member that can be operated by a vehicle user, operating force transmission means that transmits a human power acting on the emergency operating member to the latch device as a mechanical latch release operating force, wherein the vehicle door latch release device further comprises restriction/permission switching means that switches between an operation restricted state in which operation of the emergency operating member is restricted and an operation permitted state in which operation of the emergency operating member is enabled in response to a predetermined operation by a vehicle user, characterized in that the vehicle door latch release device further comprises a handle for a vehicle user to carry out an open/close operation of the door (D), the handle being formed from a handle main body which is formed from a grip portion extending lengthwise in a fore-and-aft direction of the vehicle; and wherein in use gripping of the grip portion by a vehicle user can pivotingly operate the emergency operating member in a vertical direction by applying a human force to the emergency operating member .
A solid electrolyte having a garnet type crystal structure, comprising: Li, La, Zr, O and Ga; and at least one element selected from the group consisting of Mg, Zn and Sc. Li, La, Zr, O and Ga; and at least one element selected from the group consisting of Mg, Zn and Sc.
A power conversion device comprising, in each of three phases: a phase arm comprising unit converters connected in multi stage, the unit converter comprising a switching element and a capacitor; a three-winding transformer comprising a primary winding , a secondary winding and a tertiary winding ; and a charging unit comprising a charging resistor and a disconnection switch connected in parallel with each other, wherein: the power conversion device applies or absorbs reactive power relative to a three-phase AC system; a negative side of the secondary winding and a negative side of the tertiary winding are connected with each other in each phase and among the three phases; characterized in that a circuit part in each phase comprising the phase arm and the charging unit connected in series to each other has a first end connected to a positive side of the tertiary winding and a second end connected to a positive side of the secondary winding in the other phase so as to form a delta connection. a phase arm comprising unit converters connected in multi stage, the unit converter comprising a switching element and a capacitor; a three-winding transformer comprising a primary winding , a secondary winding and a tertiary winding ; and a charging unit comprising a charging resistor and a disconnection switch connected in parallel with each other, wherein: the power conversion device applies or absorbs reactive power relative to a three-phase AC system; a negative side of the secondary winding and a negative side of the tertiary winding are connected with each other in each phase and among the three phases; characterized in that a circuit part in each phase comprising the phase arm and the charging unit connected in series to each other has a first end connected to a positive side of the tertiary winding and a second end connected to a positive side of the secondary winding in the other phase so as to form a delta connection. the power conversion device applies or absorbs reactive power relative to a three-phase AC system; a negative side of the secondary winding and a negative side of the tertiary winding are connected with each other in each phase and among the three phases; characterized in that a circuit part in each phase comprising the phase arm and the charging unit connected in series to each other has a first end connected to a positive side of the tertiary winding and a second end connected to a positive side of the secondary winding in the other phase so as to form a delta connection.
An imaging sensor, comprising: an array of light-detecting elements , wherein the array of light-detecting elements comprises identical light-detecting elements throughout the array , wherein each light-detecting element in the array of light-detecting elements is arranged in the imaging sensor so as to detect a respective wavelength interval, wherein the respective wavelength interval differs for different light-detecting elements; a filter arranged on the array of light-detecting elements for controlling the respective wavelength interval being detected by the light-detecting elements ; and a pattern arranged on the array of light-detecting elements , wherein the pattern defines a plurality of transparent areas , each transparent area being associated with a corresponding light-detecting element in the array of light-detecting elements , characterized in that the pattern is integrated on the array of light-detecting elements by deposition and etching of material on the array of light-detecting elements , wherein a size of a transparent area among the plurality of transparent areas is dependent on the wavelength interval of the corresponding light-detecting element with which the transparent area is associated; wherein the sizes of at least two transparent areas among the plurality of transparent areas are different from each other. an array of light-detecting elements , wherein the array of light-detecting elements comprises identical light-detecting elements throughout the array , wherein each light-detecting element in the array of light-detecting elements is arranged in the imaging sensor so as to detect a respective wavelength interval, wherein the respective wavelength interval differs for different light-detecting elements; a filter arranged on the array of light-detecting elements for controlling the respective wavelength interval being detected by the light-detecting elements ; and a pattern arranged on the array of light-detecting elements , wherein the pattern defines a plurality of transparent areas , each transparent area being associated with a corresponding light-detecting element in the array of light-detecting elements , characterized in that the pattern is integrated on the array of light-detecting elements by deposition and etching of material on the array of light-detecting elements , wherein a size of a transparent area among the plurality of transparent areas is dependent on the wavelength interval of the corresponding light-detecting element with which the transparent area is associated; wherein the sizes of at least two transparent areas among the plurality of transparent areas are different from each other.
An apparatus for converting a slit-sheet stock material into an expanded dunnage product, the apparatus comprising: a housing , a pair of expansion rollers within the housing extending widthwise across a path of the sheet material and being spaced apart to form a gap between the opposing expansion rollers , characterized in that the apparatus further comprises a plurality of guide strips extending from an upstream side of the pair of expansion rollers to a downstream side of the pair of expansion rollers at a plurality of locations laterally spaced across the width of the path.
An electric dust collecting device comprising: an electric charging unit for electrically charging dust in air; a first filter unit including a plurality of discharge electrode plates (11-15) spaced apart from each other to define passages (P1 to P4) therebetween through which dust electrically charged by the electric charging unit passes; and a second filter unit disposed downstream of the plurality of discharge electrode plates (11-15) in an air flow direction and connected to a ground to cause corona discharge between the plurality of discharge electrode plates (11-15) and the second filter unit and to collect electrically charged dust, wherein the electric charging unit includes at least one ion generator for generating ions at a position before the plurality of discharge electrode plates (11-15) in the air flow direction, and wherein the at least one ion generator includes a pair of ion generators (1A and 1B) spaced apart from each other by a smaller spacing (L1) than the spacing (L2) between the opposite outermost discharge electrode plates (11-15) of the plurality of discharge electrode plates (11-15), characterized in that each ion generator from said pair of ion generators (1A and 1B) includes carbon fiber electrodes for causing corona discharge, wherein the carbon fiber electrodes are longitudinally disposed in a direction perpendicular to the air flow direction. an electric charging unit for electrically charging dust in air; a first filter unit including a plurality of discharge electrode plates (11-15) spaced apart from each other to define passages (P1 to P4) therebetween through which dust electrically charged by the electric charging unit passes; and a second filter unit disposed downstream of the plurality of discharge electrode plates (11-15) in an air flow direction and connected to a ground to cause corona discharge between the plurality of discharge electrode plates (11-15) and the second filter unit and to collect electrically charged dust, wherein the electric charging unit includes at least one ion generator for generating ions at a position before the plurality of discharge electrode plates (11-15) in the air flow direction, and wherein the at least one ion generator includes a pair of ion generators (1A and 1B) spaced apart from each other by a smaller spacing (L1) than the spacing (L2) between the opposite outermost discharge electrode plates (11-15) of the plurality of discharge electrode plates (11-15), characterized in that each ion generator from said pair of ion generators (1A and 1B) includes carbon fiber electrodes for causing corona discharge, wherein the carbon fiber electrodes are longitudinally disposed in a direction perpendicular to the air flow direction.
A method for joining two parts by friction stir welding, the method comprising the steps of: providing a first part and a second part to be joined to the first part , wherein the first part comprises a recess for receiving the second part , cooling the second part such that the second part shrinks and can be inserted with lower resistance into the recess of the first part compared to a non-shrunk state of the second part , inserting the second part into the recess of the first part , warming the second part , such that the second part is pressed against the recess of the first part , and joining the second part to the first part by means of friction stir welding. providing a first part and a second part to be joined to the first part , wherein the first part comprises a recess for receiving the second part , cooling the second part such that the second part shrinks and can be inserted with lower resistance into the recess of the first part compared to a non-shrunk state of the second part , inserting the second part into the recess of the first part , warming the second part , such that the second part is pressed against the recess of the first part , and joining the second part to the first part by means of friction stir welding.
A porous silicate-ceramic body, optionally with different colors, having a first density that can be sintered to a silicate-ceramic body having a second density, wherein the ratio of the first density to the second density is from 2/5 to 98/100, and the three-point bending strength of said porous silicate-ceramic body having a first density as measured according to ISO 6872:2008 is from 25 to 180 MPa, and wherein the second density approximately corresponds to the theoretically reachable density of the ceramic body.