mhurhangee/ep-ind-claims huggingface dataset:
A home appliance, comprising a main body configured to have a cavity; a door configured to open and close a front of the cavity, wherein the door has an engaging structure, and the main body has a latch that is engaged with or released from the engaging structure; and a hinge module configured to rotatably connect the door about the main body; a drive configured to provide power to move the latch; a cam configured to transmit the power of the drive to the latch; characterized in that a first switch and a second switch configured to being turned on and off by the cam; wherein the latch have positions comprising a first basic position, a second basic position, and a third basic position, wherein the first basic position is position in which the latch is engaged with the engaging structure to maintain a closed state of the door and to allow the door to be opened manually, wherein the second basic position is a position in which the latch is not engaged with the engaging structure, wherein the third position is position in which the latch is engaged with the engaging structure to maintain a closed state of the door and the latch securely locks the door and does not allow the door to be opened manually, wherein, the latch is in the first basic position when the first switch and the second switch are turned on, the latch is in the second basic position when the first switch is turned on and the second switch is turned off, the latch is in the third basic position when the first switch is turned off and the second switch is turned on, wherein the hinge module is configured to apply a force to move the door in an opening direction thereof when the door is closed, and to open the door when the latch is positioned to the second basic position.
An isolated peptide comprising the amino acid sequence SEHETRLVAX 1 LFZ 1 LKWNPX 2 DYGGX 3 KKIHZ 2 LX 4 YTGH (SEQ ID NO:31), wherein: (a) X 1 is N, X 2 is D, X 3 is I, X 4 is D, the length of Z 1 is 4, and the length of Z 2 is 2 (SEQ ID NO:6); or (b) X 1 is N, X 2 is A, X 3 is I, X 4 is D, the length of Z 1 is 4, and the length of Z 2 is 2 (SEQ ID NO:7), and Z 1 and Z 2 are linker sequences of independent lengths comprising independently selected amino acids. (a) X 1 is N, X 2 is D, X 3 is I, X 4 is D, the length of Z 1 is 4, and the length of Z 2 is 2 (SEQ ID NO:6); or (b) X 1 is N, X 2 is A, X 3 is I, X 4 is D, the length of Z 1 is 4, and the length of Z 2 is 2 (SEQ ID NO:7), and Z 1 and Z 2 are linker sequences of independent lengths comprising independently selected amino acids.
Method for controlling the movement of two transport units (T1, T2) of a long-stator linear motor comprising a plurality n of LLM coils (L1,..., Ln) arranged adjacently in the direction of movement, wherein the first transport unit comprises a first number of first drive magnets arranged adjacently in the direction of movement, and the second transport unit comprises a second number of second drive magnets arranged adjacently in the direction of movement, - the movement of the first transport unit being controlled by an assigned first transport controller, in that the first transport controller calculates electrical variables to be specified respectively for a first portion of the plurality n of LLM coils (L1,..., Ln), - the movement of the second transport unit being controlled by an assigned second transport controller, in that the second transport controller calculates electrical variables to be specified respectively for a second portion of the plurality n of LLM coils (L1,..., Ln), characterized in that it is checked, whether a first controlled variable (Ux') is predefined by the first transport controller for an LLM coil (Lx) as an electrical variable and whether a second controlled variable (Ux") is simultaneously predefined by the second transport controller to the same LLM coil (Lx) as an electrical variable, and that in this case, either an additional controlled variable (Ux), which is derived from the first controlled variable (Ux') and/or the second controlled variable (Ux") using a predetermined function f (Ux = f(Ux', Ux"), or Ux = f(Ux') or Ux = f(Ux")), is predefined for the LLM coil (Lx) as an electrical variable, or the coil terminals of the LLM coil (Lx) are short-circuited. - the movement of the first transport unit being controlled by an assigned first transport controller, in that the first transport controller calculates electrical variables to be specified respectively for a first portion of the plurality n of LLM coils (L1,..., Ln), - the movement of the second transport unit being controlled by an assigned second transport controller, in that the second transport controller calculates electrical variables to be specified respectively for a second portion of the plurality n of LLM coils (L1,..., Ln), characterized in that it is checked, whether a first controlled variable (Ux') is predefined by the first transport controller for an LLM coil (Lx) as an electrical variable and whether a second controlled variable (Ux") is simultaneously predefined by the second transport controller to the same LLM coil (Lx) as an electrical variable, and that in this case, either an additional controlled variable (Ux), which is derived from the first controlled variable (Ux') and/or the second controlled variable (Ux") using a predetermined function f (Ux = f(Ux', Ux"), or Ux = f(Ux') or Ux = f(Ux")), is predefined for the LLM coil (Lx) as an electrical variable, or the coil terminals of the LLM coil (Lx) are short-circuited.
Arrangement (4; 4') for feeding a semi-finished product as a starting material for thermoforming to a thermoforming machine, wherein the arrangement (4; 4') has a deposition device, on which blanks (64a-c; 64) of the starting material can each be provided, and a loading device, having a table device and a movable loading unit; wherein the loading unit has a first portion and a second portion, and the first and second portion (46, 47) are each set up for receiving one of the blanks (64a-c; 64) on the portion (46, 47), and wherein at least one of the blanks (64a-c; 64) can be deposited on the table device; wherein the first portion is positionable for receiving one of the blanks (64a-c; 64) from the deposition device and the second portion is positionable for receiving another of the blanks (64a-c; 64) from the table device, and subsequently the first portion is positionable for depositing one blank (64a-c; 64) received from the deposition device on the table device and the second portion is positionable for depositing the other blank (64a-c; 64) received from the table device in a work region of the thermoforming machine. wherein the arrangement (4; 4') has a deposition device, on which blanks (64a-c; 64) of the starting material can each be provided, and a loading device, having a table device and a movable loading unit; wherein the loading unit has a first portion and a second portion, and the first and second portion (46, 47) are each set up for receiving one of the blanks (64a-c; 64) on the portion (46, 47), and wherein at least one of the blanks (64a-c; 64) can be deposited on the table device; wherein the first portion is positionable for receiving one of the blanks (64a-c; 64) from the deposition device and the second portion is positionable for receiving another of the blanks (64a-c; 64) from the table device, and subsequently the first portion is positionable for depositing one blank (64a-c; 64) received from the deposition device on the table device and the second portion is positionable for depositing the other blank (64a-c; 64) received from the table device in a work region of the thermoforming machine.
A process for the purification and recovery of a mesenchymal stem cell preparation from fatty tissue for filling of tissue by injection comprising the steps of: a) separating the fat of a provided fatty tissue from an excess of water, oil and/or blood by centrifugation, b) dividing the centrifuged fat of step a) and incubating 40 % of the centrifuged fat with collagenase, as well as other connective tissue digesting enzymes, at 30 ° to 45 °C, preferably 30 ° to 37 °C, for 10 to 45 min, preferably for 20 to 40 min, c) isolating mesenchymal stem cells from the digested fat by centrifugation, d) mixing the isolated stem cells of step c) with the undigested fat of step b), wherein the proportion of undigested fat is 60 %. a) separating the fat of a provided fatty tissue from an excess of water, oil and/or blood by centrifugation, b) dividing the centrifuged fat of step a) and incubating 40 % of the centrifuged fat with collagenase, as well as other connective tissue digesting enzymes, at 30 ° to 45 °C, preferably 30 ° to 37 °C, for 10 to 45 min, preferably for 20 to 40 min, c) isolating mesenchymal stem cells from the digested fat by centrifugation, d) mixing the isolated stem cells of step c) with the undigested fat of step b), wherein the proportion of undigested fat is 60 %.
A tracking reference, comprising: a reference array featuring a positionally fixed arrangement of at least two tracking markers; and an interface for detachably coupling the reference array to a base member via an attractive force, wherein the interface comprises at least one supporting surface for contacting the base member, wherein the interface comprises magnetic means adapted to cause the attractive force, formed by at least one permanent magnet and/or at least one electromagnet, characterized in that the magnetic means are protruding from the interface, and have a flat end-facing surface that constitutes one of the at least one supporting surface, which defines a plane comprising a predetermined spatial position relative to the arrangement of the at least two tracking markers.
Active compound combinations, comprising N -[2-(1,3-dimethylbutyl)phenyl]-5-fluoro-1,3-dimethyl-1 H -pyrazole-4-carboxamide or salts thereof, and metalaxyl or metalaxyl-M and trifloxystrobin. N -[2-(1,3-dimethylbutyl)phenyl]-5-fluoro-1,3-dimethyl-1 H -pyrazole-4-carboxamide or salts thereof, and metalaxyl or metalaxyl-M and trifloxystrobin.
A method of treating and stabilizing a cellulosic material, comprising a) contacting a cellulosic material with a treatment solution of an alkali in an alcohol/water co-solvent to yield a nano-deaggregated cellulose and dissolved phytochemicals in a post-treatment solution, b) treating the post-treatment solution with an acid to reduce pH, neutralize the alkali and precipitate the alkali as an alkali salt to yield a neutralized post-treatment solution and a stablised nano-deaggregated cellulose, thereby reducing the pH of the post-treatment solution to a level such that the nano-deaggregated cellulose is not mercerized upon exposure to water, the neutralized post-treatment solution having the stabilised nano-deaggregated cellulose, the precipitated alkali salt and dissolved phytochemicals. a) contacting a cellulosic material with a treatment solution of an alkali in an alcohol/water co-solvent to yield a nano-deaggregated cellulose and dissolved phytochemicals in a post-treatment solution, b) treating the post-treatment solution with an acid to reduce pH, neutralize the alkali and precipitate the alkali as an alkali salt to yield a neutralized post-treatment solution and a stablised nano-deaggregated cellulose, thereby reducing the pH of the post-treatment solution to a level such that the nano-deaggregated cellulose is not mercerized upon exposure to water, the neutralized post-treatment solution having the stabilised nano-deaggregated cellulose, the precipitated alkali salt and dissolved phytochemicals.
A wear-resistant steel plate having a thickness of 6-25mm, consisting of, in weight percentage, C: 0.205-0.25%, Si: 0.20-1.00%, Mn: 1.0-1.5%, P≤0.015%, S≤50.010%, Al: 0.02-0.04%, Ti: 0.01-0.03%, N≤0.006%, Ca≤0.005%, Cr: 0.35-0.70%, Ni: 0.16-0.50%, Mo: 0.18-0.30%, and the balance being Ferrum and unavoidable impurities; wherein the carbon equivalent Ceq is 0.57-0.64, wherein Ceq = C+Mn/6+(Cr+Mo+V)/5+(Ni+Cu)/14; and wherein the structures of the wear-resistant steel plate consists of tempered martensite and 5-10 area% residual austenites, wherein the steel plate exhibits a Brinell hardness of ≥HB420, a yield strength of ≥ 1000 MPa, an elongation of > 18%, an A kv at -40°C of ≥ 27J as measured with a GB 2106-1980 Metallic materials - Charpy v-notch impact test, and a good cool bending property tested by a 180° transverse cool bending test according to GB/T 232-2010, wherein d=2a.
An iron oligosaccharide compound comprising a hydrogenated oligosaccharide in stable association with ferric oxyhydroxide, wherein said hydrogenated oligosaccharide is a mixture of hydrogenated dextran oligosaccharides having the following molecular weight distribution: (i) a weight average molecular weight (Mw) between 500 and 3,000 Daltons; (ii) a number average molecular weight (Mn) above 500 Daltons; (iii) 90% by weight of said hydrogenated dextran oligosaccharides have molecular weights less than 3,500 Daltons; (iv) the Mw of the 10% by weight fraction of the hydrogenated dextran oligosaccharides having the highest molecular weights is below 4,500 Daltons; and (v) a dimer saccharide content of 2.9 % by weight or less, based on the total weight of the hydrogenated oligosaccharide. (i) a weight average molecular weight (Mw) between 500 and 3,000 Daltons; (ii) a number average molecular weight (Mn) above 500 Daltons; (iii) 90% by weight of said hydrogenated dextran oligosaccharides have molecular weights less than 3,500 Daltons; (iv) the Mw of the 10% by weight fraction of the hydrogenated dextran oligosaccharides having the highest molecular weights is below 4,500 Daltons; and (v) a dimer saccharide content of 2.9 % by weight or less, based on the total weight of the hydrogenated oligosaccharide.
A method comprising: executing, by a client simulation system comprising a processor, a simulation of a client device; executing, by the client simulation system, an application in the simulation of the client device up to a cue point; executing, by the client simulation system, from the suspended execution state of the application, a resumed instance of the application responsive to the request using the representation stored in the memory; and providing, to the client device via the network, an output from the resumed instance of the application; characterized by: suspending execution of the application at the cue point, wherein the cue point is at a predetermined length of execution time; storing, in a memory associated with the client simulation system, a representation of the application in a suspended execution state, suspended at the cue point; receiving, from a client device via a network, a request to provide an interactive instance of the application. executing, by a client simulation system comprising a processor, a simulation of a client device; executing, by the client simulation system, an application in the simulation of the client device up to a cue point; executing, by the client simulation system, from the suspended execution state of the application, a resumed instance of the application responsive to the request using the representation stored in the memory; and providing, to the client device via the network, an output from the resumed instance of the application; characterized by: suspending execution of the application at the cue point, wherein the cue point is at a predetermined length of execution time; storing, in a memory associated with the client simulation system, a representation of the application in a suspended execution state, suspended at the cue point; receiving, from a client device via a network, a request to provide an interactive instance of the application. suspending execution of the application at the cue point, wherein the cue point is at a predetermined length of execution time; storing, in a memory associated with the client simulation system, a representation of the application in a suspended execution state, suspended at the cue point; receiving, from a client device via a network, a request to provide an interactive instance of the application.
Device for adjusting a door, the door being connected to a wall or fixed panel element, comprising: a bearing part, which can be connected to the wall or fixed panel element, a bearing lifter being arranged in the bearing part, which bearing lifter comprises at least one setting surface (2.2) for raising and lowering the door during the opening and closing process of the door, the device further comprising a door lifter and the setting surface (2.2) being operatively connected to at least one complementary setting surface (14.1) arranged on the door lifter, the bearing lifter comprising sloping surfaces (2.1) acting as a kind of rocker on the side opposite the setting surface (2.2), and an adjustment means being provided in the bearing part for adjusting the door, the adjustment means provided in the bearing part being configured as an adjustment screw, characterized in that a tensioner is provided as a force transmitter, which is connected to the bearing lifter, the tensioner being movably mounted in the bearing part and the bearing lifter being movable about a vertical axis by means of the adjustment screw, the tensioner being able to be tensioned and the angular position of the door being able to be adjusted.
A yarn monitoring device comprising: a first signal processor that includes a first processing section adapted to process a signal pertaining to a running yarn, and a first communication section adapted to be capable of communicating with a first external device, wherein the first external device is adapted to perform at least one of setting of an operation of a yarn winding unit of a yarn winding machine and monitoring of the operation of the yarn winding unit; and a second signal processor that includes a second processing section adapted to process the signal pertaining to the running yarn differently from the first processing section, and a second communication section adapted to be capable of communicating with the first external device; characterized in that the first signal processor includes a switching section adapted to switch the second signal processor between a state of being capable of communicating with the first external device and a state of being incapable of communicating with the first external device, the first communication section is configured to constantly monitor whether a command is received from the first external device, and in the communication-disabled state, the second communication section is configured to not monitor whether a command is sent from the first external device to the second communication section. a first signal processor that includes a first processing section adapted to process a signal pertaining to a running yarn, and a first communication section adapted to be capable of communicating with a first external device, wherein the first external device is adapted to perform at least one of setting of an operation of a yarn winding unit of a yarn winding machine and monitoring of the operation of the yarn winding unit; and a second signal processor that includes a second processing section adapted to process the signal pertaining to the running yarn differently from the first processing section, and a second communication section adapted to be capable of communicating with the first external device; characterized in that the first signal processor includes a switching section adapted to switch the second signal processor between a state of being capable of communicating with the first external device and a state of being incapable of communicating with the first external device, the first communication section is configured to constantly monitor whether a command is received from the first external device, and in the communication-disabled state, the second communication section is configured to not monitor whether a command is sent from the first external device to the second communication section.
An image pickup apparatus comprising: an image pickup element which includes a plurality of imaging pixels configured to perform a photoelectric conversion of an image formed by a light beam from an image pickup optical system and a plurality of focus detection pixels configured to perform a photoelectric conversion of an image formed by a divided light beam of the light beam from the image pickup optical system; a focus detector configured to perform a focus detection of the image pickup optical system based on an output of the focus detection pixels; an aperture controller configured to perform a control so that an aperture value of the image pickup optical system is equal to or less than a predetermined value, by opening an aperture of the image pickup optical system equal to or more than a predetermined opening state, when the focus detector perform the focus detection; an exposure controller configured to adjust an exposure condition in accordance with the aperture value controlled by the aperture controller; and characterized by a vignetting determination portion configured to determine whether or not vignetting is generated in the focus detection pixels based on an image height of the focus detection pixels and optical information of the image pickup optical system; and a calculator configured to calculate the aperture value to reduce the vignetting to less than a predetermined value based on an output of the determination portion, wherein the aperture controller is configured to set the aperture value based on an output of the calculator. an image pickup element which includes a plurality of imaging pixels configured to perform a photoelectric conversion of an image formed by a light beam from an image pickup optical system and a plurality of focus detection pixels configured to perform a photoelectric conversion of an image formed by a divided light beam of the light beam from the image pickup optical system; a focus detector configured to perform a focus detection of the image pickup optical system based on an output of the focus detection pixels; an aperture controller configured to perform a control so that an aperture value of the image pickup optical system is equal to or less than a predetermined value, by opening an aperture of the image pickup optical system equal to or more than a predetermined opening state, when the focus detector perform the focus detection; an exposure controller configured to adjust an exposure condition in accordance with the aperture value controlled by the aperture controller;