mhurhangee/ep-ind-claims huggingface dataset:
Shrimp peeling machine for operation in stationary land based production facilities and in maritime production facilities including in fishing boats such as shrimp trawlers where the shrimp peeling occurs in a shrimp peeling process direction, where the shrimp peeling machine is provided with a closed chain consisting of a number of joints (14,15), which each contains two first cylindrical rollers, one second cylindrical roller, and two third cylindrical rollers, where the longitudinal axis of the cylindrical rollers (4,5,6) is displaced 90 degrees in relation to the shrimp peeling process direction and where the rollers (4,5,6) can be turned by activation of toothed wheel and where the chain is operated by at least one toothed wheel, which is connected to a motor unit (10,11), where the cylindrical rollers (4,5,6) have a metallic or a polymeric surface characterized in that the chain is provided with friction bearings, which form seat for second rollers and which are affected by position regulation guys, where the friction bearings are pressed against the position regulation guys by springs, and where the third rollers are bedded in tracks and pressed against the first and second rollers by springs so that position adjustment of said position regulation guys resting on the friction bearings changes the mutual positions between the one second roller of one joint (14,15) in relation to the two first rollers of the same joint (14,15), and between the two third rollers of the same joint (14,15) in relation to the two first rollers and the one second roller of the same joint (14,15).
A compound of formula wherein: R 1 is selected from the group consisting of: H, SO 3 H, C1-C6 alkyl, amino-(C1-C6)-alkyl, wherein C1-C6 alkyl is preferably selected from methyl and isopropyl, and wherein amino-(C1-C6)-alkyl is preferably aminoethyl; R 2 is selected from H and C1-C3 alkyl, preferably H or CH 3; R 3 is selected from H and C1-C3 alkyl, preferably H or CH 3; X-Y is selected from N=CH and NH-CH 2. R 1 is selected from the group consisting of: H, SO 3 H, C1-C6 alkyl, amino-(C1-C6)-alkyl, wherein C1-C6 alkyl is preferably selected from methyl and isopropyl, and wherein amino-(C1-C6)-alkyl is preferably aminoethyl; R 2 is selected from H and C1-C3 alkyl, preferably H or CH 3; R 3 is selected from H and C1-C3 alkyl, preferably H or CH 3; X-Y is selected from N=CH and NH-CH 2.
A method for controlling an active power in a wind farm comprising at least two wind turbines, the power output of which is controlled by means of one wind turbine controller in each case, wherein a set value of the active power (P set, P set,global) to be output by the wind farm is applied to a wind farm model, which generates a modeled active power set value (P' set) of the wind farm that is applied, together with an actual value of the active power (P act) output by the wind farm, to a subtraction element, which provides a control deviation (e) for a power controller, which generates a controller manipulated variable (u reg) to which a pre-control manipulated variable (u ff), which is determined irrespective of operating states of the wind turbines of the wind farm and their actual values, is added to give a total manipulated variable (u), wherein the modeled active power set value (P' set) of the wind farm is determined from the sum of modeled active power set values (p simO,1, p simO,2, p simO,n), wherein the active power set value of the wind farm is divided between models (221, 222, 22n) of the wind turbines contained in the wind farm and the models of the wind turbines each determine a modeled active power set value of the relevant wind turbine (p simO,1, p simO,2, p simO,n) depending on a proportion of the active power set value (p simI,1, p simI,2, p simI,n) allotted to the relevant model.
A high-ratio planetary gear reducer (100, 200, 300) comprising: a carrier (110, 210, 310) connected to an input shaft; one or more planetary gears (120, 220, 320) which is rotatably supported by the carrier (110, 210, 310) at an eccentric position relative to a rotational axis of the carrier (110, 210, 310); a fixed annular gear (130, 230, 330) meshing with the one or more planetary gears (120, 220, 320) in a state of being coaxially arranged with the carrier (110, 210, 310); and a rotating annular gear (140, 240, 340) meshing with the one or more planetary gears (120, 220, 320) in a state of being coaxially arranged with the fixed annular gear (130, 230, 330) and having the number of teeth that is set by Equation 1 below: Z o = Z ƒ ± N p where Z o is the number of teeth of the rotating annular gear (140, 240, 340), Z f is the number of teeth of the fixed annular gear (130, 230, 330), and N p is the number of the one or more planetary gears (120, 220, 320) wherein a module and a pressure angle of the rotating annular gear (140, 240, 340) are defined by Equations 2 and 3 below: m o = m s Z ƒ − Z p Z o − Z p where m o is a module of the rotating annular gear (140, 240, 340), m s is a module of the fixed annular gear (130, 230, 330), and Z p is the number of teeth of the one or more planetary gears (120, 220, 320), and α o = acos Z o − Z p Z ƒ − Z p cosα s where α o is a pressure angle of the rotating annular gear (140, 240, 340) and α s is a pressure angle of the fixed annular gear (130, 230, 330). a carrier (110, 210, 310) connected to an input shaft; one or more planetary gears (120, 220, 320) which is rotatably supported by the carrier (110, 210, 310) at an eccentric position relative to a rotational axis of the carrier (110, 210, 310); a fixed annular gear (130, 230, 330) meshing with the one or more planetary gears (120, 220, 320) in a state of being coaxially arranged with the carrier (110, 210, 310); and a rotating annular gear (140, 240, 340) meshing with the one or more planetary gears (120, 220, 320) in a state of being coaxially arranged with the fixed annular gear (130, 230, 330) and having the number of teeth that is set by Equation 1 below: Z o = Z ƒ ± N p where Z o is the number of teeth of the rotating annular gear (140, 240, 340), Z f is the number of teeth of the fixed annular gear (130, 230, 330), and N p is the number of the one or more planetary gears (120, 220, 320) wherein a module and a pressure angle of the rotating annular gear (140, 240, 340) are defined by Equations 2 and 3 below: m o = m s Z ƒ − Z p Z o − Z p where m o is a module of the rotating annular gear (140, 240, 340), m s is a module of the fixed annular gear (130, 230, 330), and Z p is the number of teeth of the one or more planetary gears (120, 220, 320), and α o = acos Z o − Z p Z ƒ − Z p cosα s where α o is a pressure angle of the rotating annular gear (140, 240, 340) and α s is a pressure angle of the fixed annular gear (130, 230, 330).
A hard film coated on a surface of a base material, the hard film configured to include a layer A, a layer B, and a nanolayer-alternating layer alternately laminated by a physical vapor deposition method to a total film thickness of 0.5 to 20 μm, wherein the layer A is an AlTiCr nitride having a composition formula of (Al a Ti b Cr c α d)N, where α is one or more elements selected from a group consisting of C, B, Si, V, Y, Zr, Nb, Mo, Hf, Ta, and W and atomic ratios a, b, c, d respectively satisfy 0.10≤a≤0.85, 0.02≤b≤0.70, 0.03≤c≤0.65, 0≤d≤0.10, and a+b+c+d=1, and has a thickness of 0.5 to 1000 nm, wherein the layer B is an AlTiCr nitride or AlTiCr carbonitride having a composition formula of (Al e Ti f Cr g β h)C x N 1-X, where β is one or more elements selected from a group consisting of B, Si, V, Y, Zr, Nb, Mo, Hf, Ta, and W and atomic ratios e, f, g, h, and X respectively satisfy 0.10≤e≤0.85, 0.02≤f≤0.70, 0.03≤g≤0.65, 0≤h≤0.10, e+f+g+h=1, and 0≤X≤0.6, and has a thickness of 0.5 to 1000 nm, wherein the nanolayer-alternating layer is formed by alternately laminating a nanolayer A or a nanolayer B having the same composition as the layer A or the layer B and a layer C and has a thickness of 1 to 1000 nm, wherein the nanolayer A and the nanolayer B each have a thickness of 0.5 to 500 nm, and wherein the layer C is an AlCr(SiC) nitride or AlCr(SiC) carbonitride having a composition formula of [Al i Cr j (SiC) k γ l]C Y N 1-Y, where γ is one or more elements selected from a group consisting of B, Ti, V, Y, Zr, Nb, Mo, Hf, Ta, and W and atomic ratios i, j, k, I, and Y respectively satisfy 0.20≤i≤0.85, 0.05≤j≤0.50, 0.01≤k≤0.45, 0≤l≤0.10, i+j+k+l=1, and 0≤Y≤0.6, and has a thickness of 0.5 to 500 nm. the layer A is an AlTiCr nitride having a composition formula of (Al a Ti b Cr c α d)N, where α is one or more elements selected from a group consisting of C, B, Si, V, Y, Zr, Nb, Mo, Hf, Ta, and W and atomic ratios a, b, c, d respectively satisfy 0.10≤a≤0.85, 0.02≤b≤0.70, 0.03≤c≤0.65, 0≤d≤0.10, and a+b+c+d=1, and has a thickness of 0.5 to 1000 nm, wherein the layer B is an AlTiCr nitride or AlTiCr carbonitride having a composition formula of (Al e Ti f Cr g β h)C x N 1-X, where β is one or more elements selected from a group consisting of B, Si, V, Y, Zr, Nb, Mo, Hf, Ta, and W and atomic ratios e, f, g, h, and X respectively satisfy 0.10≤e≤0.85, 0.02≤f≤0.70, 0.03≤g≤0.65, 0≤h≤0.10, e+f+g+h=1, and 0≤X≤0.6, and has a thickness of 0.5 to 1000 nm, wherein the nanolayer-alternating layer is formed by alternately laminating a nanolayer A or a nanolayer B having the same composition as the layer A or the layer B and a layer C and has a thickness of 1 to 1000 nm, wherein the nanolayer A and the nanolayer B each have a thickness of 0.5 to 500 nm, and wherein the layer C is an AlCr(SiC) nitride or AlCr(SiC) carbonitride having a composition formula of [Al i Cr j (SiC) k γ l]C Y N 1-Y, where γ is one or more elements selected from a group consisting of B, Ti, V, Y, Zr, Nb, Mo, Hf, Ta, and W and atomic ratios i, j, k, I, and Y respectively satisfy 0.20≤i≤0.85, 0.05≤j≤0.50, 0.01≤k≤0.45, 0≤l≤0.10, i+j+k+l=1, and 0≤Y≤0.6, and has a thickness of 0.5 to 500 nm.
An appliance for locating an electromagnetic spectrum sensor on epidermis, the electromagnetic spectrum sensor having a sensor face emitting and receiving electromagnetic radiation (1002, 1004), the appliance comprising: a fitting including a retaining device and a chute extending along an axis A between first and second ends (114,116), and the axis extending obliquely with respect to the epidermis, the fitting having - a first arrangement of the retaining device for retaining the electromagnetic spectrum sensor in the chute and positioning the sensor face at the second end of the chute so as to emit and receive the electromagnetic radiation (1002,1004) with respect to the epidermis to monitor fluid in perivascular tissue; and a second arrangement of the retaining device for releasing the electromagnetic spectrum sensor from the first arrangement; a body molded over the fitting; and a foundation adhering the body with the epidermis, wherein the second end of the chute is located at the foundation. a fitting including a retaining device and a chute extending along an axis A between first and second ends (114,116), and the axis extending obliquely with respect to the epidermis, the fitting having - a first arrangement of the retaining device for retaining the electromagnetic spectrum sensor in the chute and positioning the sensor face at the second end of the chute so as to emit and receive the electromagnetic radiation (1002,1004) with respect to the epidermis to monitor fluid in perivascular tissue; and a second arrangement of the retaining device for releasing the electromagnetic spectrum sensor from the first arrangement; a first arrangement of the retaining device for retaining the electromagnetic spectrum sensor in the chute and positioning the sensor face at the second end of the chute so as to emit and receive the electromagnetic radiation (1002,1004) with respect to the epidermis to monitor fluid in perivascular tissue; and a second arrangement of the retaining device for releasing the electromagnetic spectrum sensor from the first arrangement; a body molded over the fitting; and a foundation adhering the body with the epidermis, wherein the second end of the chute is located at the foundation.
A calculus retrieving device for removing calculus in an ureter and a renal pelvis, the calculus retrieving device comprising: an elongated member; a retrieval part; an outlet; and an inlet; characterized in that the retrieval part is fixed to the elongated member so that the elongated member and the retrieval part are movable together as a unit, the elongated member and the retrieval part together being sized to be positioned in the renal pelvis; the elongated member includes a lumen in which a discharge force is produced to discharge fluid in the lumen out of the elongated member and into the renal pelvis and in which a suction force is produced to draw fluid into the lumen from the renal pelvis; the outlet is in selective communication with the lumen in the elongated member, and through which fluid in the lumen is discharged into the renal pelvis by the discharge force in the lumen of the elongated member; the inlet is in selective communication with the lumen in the elongated member, and through which fluid in the renal pelvis is drawn into the lumen by the suction force in the lumen of the elongated member; and the retrieval part includes an interior that communicates with the lumen and that communicates with the renal pelvis when the calculus retrieving device is in the renal pelvis, the interior of the retrieval part being configured to receive the calculus in the renal pelvis when the suction force is produced in the lumen of the elongated member. an elongated member; a retrieval part; an outlet; and an inlet; the elongated member includes a lumen in which a discharge force is produced to discharge fluid in the lumen out of the elongated member and into the renal pelvis and in which a suction force is produced to draw fluid into the lumen from the renal pelvis; the outlet is in selective communication with the lumen in the elongated member, and through which fluid in the lumen is discharged into the renal pelvis by the discharge force in the lumen of the elongated member; the inlet is in selective communication with the lumen in the elongated member, and through which fluid in the renal pelvis is drawn into the lumen by the suction force in the lumen of the elongated member; and the retrieval part includes an interior that communicates with the lumen and that communicates with the renal pelvis when the calculus retrieving device is in the renal pelvis, the interior of the retrieval part being configured to receive the calculus in the renal pelvis when the suction force is produced in the lumen of the elongated member.
A system for a treatment of a root canal of a tooth, the system comprising: a laser source configured to generate a pulsed laser light, an optical light fiber connectable to said laser source, said optical light fiber having an application tip, said tip being tapered and configured to direct said laser light into a fluid dispersed in said root canal and thereby create a photoacoustic wave propagating in said fluid throughout said root canal for said treatment, characterized in that said optical light fiber comprises a cladding, wherein said cladding is stripped at a distal end of said optical light fiber wherein the stripped optical light fiber is configured to laterally disperse said laser light in the root canal. a laser source configured to generate a pulsed laser light, an optical light fiber connectable to said laser source, said optical light fiber having an application tip, said tip being tapered and configured to direct said laser light into a fluid dispersed in said root canal and thereby create a photoacoustic wave propagating in said fluid throughout said root canal for said treatment, characterized in that said optical light fiber comprises a cladding, wherein said cladding is stripped at a distal end of said optical light fiber wherein the stripped optical light fiber is configured to laterally disperse said laser light in the root canal.
A multi-plate clutch apparatus, comprising: an input shaft; an output shaft; a multi-plate clutch disposed to occupy clutch and non-clutch positions at which rotation of the input shaft is and is not transmitted to the output shaft, respectively; a drive element disposed about the multi-plate clutch and configured to generate rotational energy; and a linear actuator disposed to convert the rotational energy of the drive element to linear movement by which the multi-plate clutch is controllable to occupy one of the clutch and non-clutch positions; wherein the linear actuator includes a main body having an end portion, a cylindrical portion and a gear; wherein the drive element comprises a servo motor having a spur gear the gear is disposed outside of the main body; characterized in that; the multi-plate clutch is disposed inside the main body the gear is a spur ring disposed at a distal end of the cylindrical portion of the main body; and the spur ring is engageable with the spur gear of the servo motor of the drive element. an input shaft; an output shaft; a multi-plate clutch disposed to occupy clutch and non-clutch positions at which rotation of the input shaft is and is not transmitted to the output shaft, respectively; a drive element disposed about the multi-plate clutch and configured to generate rotational energy; and a linear actuator disposed to convert the rotational energy of the drive element to linear movement by which the multi-plate clutch is controllable to occupy one of the clutch and non-clutch positions; wherein the linear actuator includes a main body having an end portion, a cylindrical portion and a gear; wherein the drive element comprises a servo motor having a spur gear the gear is disposed outside of the main body; characterized in that; the multi-plate clutch is disposed inside the main body the gear is a spur ring disposed at a distal end of the cylindrical portion of the main body; and the spur ring is engageable with the spur gear of the servo motor of the drive element.
A composition comprising: - at least one aliphatic or semi-aliphatic polyester, containing at least 70 mol% of saturated aliphatic units, these units being capable of being obtained by polycondensation of monomers chosen from: ▪ saturated hydroxyalkanoic acids of formula: HO-C x H 2x -COOH, ▪ saturated dicarboxylic acids of formula: HOOC-C x H 2x -COOH and ▪ saturated diols of formula: HO-C x H 2x -OH where x = 1 - 20, preferably 1 - 6, the remaining portion of the units being formed by aromatic units; and - at least one 1,4:3,6-dianhydrohexitol alkyl ester chosen from isosorbide, isomannide and isoidide monoalkyl esters and dialkyl esters. - at least one aliphatic or semi-aliphatic polyester, containing at least 70 mol% of saturated aliphatic units, these units being capable of being obtained by polycondensation of monomers chosen from: ▪ saturated hydroxyalkanoic acids of formula: HO-C x H 2x -COOH, ▪ saturated dicarboxylic acids of formula: HOOC-C x H 2x -COOH and ▪ saturated diols of formula: HO-C x H 2x -OH where x = 1 - 20, preferably 1 - 6, the remaining portion of the units being formed by aromatic units; and ▪ saturated hydroxyalkanoic acids of formula: HO-C x H 2x -COOH, ▪ saturated dicarboxylic acids of formula: HOOC-C x H 2x -COOH and ▪ saturated diols of formula: HO-C x H 2x -OH - at least one 1,4:3,6-dianhydrohexitol alkyl ester chosen from isosorbide, isomannide and isoidide monoalkyl esters and dialkyl esters.
A method performed by User Equipment, UE, the method comprising: transmitting a random access preamble using an Early Data Transmission, EDT, -specific Physical Random Access Channel, PRACH, resource; receiving a random access response including an uplink, UL, grant; transmitting a Radio Resource Control, RRC, connection resume request, RRCconnectionresumerequest, and user data for user plane-early data transmission, UP-EDT, by using the UL grant; and for the UP-EDT, entering an RRC idle state in response to receiving, by an RRC layer of the UE, an integrity check failure indication from a Packet Data Convergence Protocol, PDCP, layer of the UE concerning a signaling radio bearer, SRB, while a timer T300 is running, the integrity check failure indication indicates that an integrity verification of an RRC response message received on the SRB has failed, and the integrity check failure indication causes the UE to leave an RRC connected state. transmitting a random access preamble using an Early Data Transmission, EDT, -specific Physical Random Access Channel, PRACH, resource; receiving a random access response including an uplink, UL, grant; transmitting a Radio Resource Control, RRC, connection resume request, RRCconnectionresumerequest, and user data for user plane-early data transmission, UP-EDT, by using the UL grant; and for the UP-EDT, entering an RRC idle state in response to receiving, by an RRC layer of the UE, an integrity check failure indication from a Packet Data Convergence Protocol, PDCP, layer of the UE concerning a signaling radio bearer, SRB, while a timer T300 is running, the integrity check failure indication indicates that an integrity verification of an RRC response message received on the SRB has failed, and the integrity check failure indication causes the UE to leave an RRC connected state.
In a computing system having a plurality of interconnected central processing units (CPUs) and a memory storing a join input data set, a method for creating a joined data set, the steps of the method comprising: - categorizing the join input data set into a high-skew data set and a low-skew data set during a query optimization phase, wherein the high-skew data set comprises rows in the join input data set that have a join column value with a higher occurrence frequency than an occurrence frequency of a join column value for the rows of the low-skew data set, and the low-skew data set consists of the rest of the rows; - at query execution time, distributing the low-skew data set to the plurality of CPUs using a first distribution method, wherein the first distribution method is a partition by value scheme; - at query execution time, distributing the high-skew data set to the plurality of CPUs using a second distribution method, wherein the second distribution method is a uniform distribution scheme; wherein the plurality of CPUs process the high-skew data set and the low-skew data set to create the joined data set. - categorizing the join input data set into a high-skew data set and a low-skew data set during a query optimization phase, wherein the high-skew data set comprises rows in the join input data set that have a join column value with a higher occurrence frequency than an occurrence frequency of a join column value for the rows of the low-skew data set, and the low-skew data set consists of the rest of the rows; - at query execution time, distributing the low-skew data set to the plurality of CPUs using a first distribution method, wherein the first distribution method is a partition by value scheme; - at query execution time, distributing the high-skew data set to the plurality of CPUs using a second distribution method, wherein the second distribution method is a uniform distribution scheme;