mhurhangee/patent-ind-claim-en huggingface dataset:
A method of creating a patient specific instrument to suit a specific patient's anatomy for use in knee replacement surgery, the method comprising: performing at least two X-ray scans of one or more bones, each of the X-ray scans being taken from different angular positions; generating a digital bone model of said one or more bones based solely on the X-ray scans; planning the patient specific instrument based on the digital bone model, including determining locations for one or more anchor points on the patient specific instrument which are adapted to abut a surface of said one or more bones, the determined locations of the one or more anchor points being disposed on the patient specific instrument corresponding to areas of expected high accuracy on the digital bone model generated by the X-ray scans, said areas of expected high accuracy including at least a peripheral bone contour in at least one of said angular positions; and creating the planned patient specific instrument having said one or more anchor points thereon. performing at least two X-ray scans of one or more bones, each of the X-ray scans being taken from different angular positions; generating a digital bone model of said one or more bones based solely on the X-ray scans; planning the patient specific instrument based on the digital bone model, including determining locations for one or more anchor points on the patient specific instrument which are adapted to abut a surface of said one or more bones, the determined locations of the one or more anchor points being disposed on the patient specific instrument corresponding to areas of expected high accuracy on the digital bone model generated by the X-ray scans, said areas of expected high accuracy including at least a peripheral bone contour in at least one of said angular positions; and creating the planned patient specific instrument having said one or more anchor points thereon.
A sweetening composition comprising: erythritol, sugar, rebaudioside A, and rebaudioside D.
Stator for an electrical rotating machine , in particular for use in a pod drive , which stator has a laminated stator core having coils , wherein the coils each have at least one groove portion , at least one winding overhang portion and at least one connecting portion , wherein the winding overhang portion is designed as a stator winding overhang board , which is arranged at an end face of the laminated stator core and has conducting tracks integrated into an insulating main body , wherein in each case a conductor of the groove portion and a conducting track of the winding overhang portion are connected in a connecting portion , wherein - the conductors of the groove portion each have a first number (n1) of partial conductors that are electrically insulated from each other and - the conducting tracks of the winding overhang portion each have a second number (n2) of partial conducting tracks that are electrically insulated from each other and wherein the partial conductors of the groove portion that are electrically insulated from each other and the partial conducting tracks of the winding overhang portion that are electrically insulated from each other are electrically conductively connected in the connecting portion . wherein the winding overhang portion is designed as a stator winding overhang board , which is arranged at an end face of the laminated stator core and has conducting tracks integrated into an insulating main body , wherein in each case a conductor of the groove portion and a conducting track of the winding overhang portion are connected in a connecting portion , wherein - the conductors of the groove portion each have a first number (n1) of partial conductors that are electrically insulated from each other and - the conducting tracks of the winding overhang portion each have a second number (n2) of partial conducting tracks that are electrically insulated from each other and - the conductors of the groove portion each have a first number (n1) of partial conductors that are electrically insulated from each other and - the conducting tracks of the winding overhang portion each have a second number (n2) of partial conducting tracks that are electrically insulated from each other and wherein the partial conductors of the groove portion that are electrically insulated from each other and the partial conducting tracks of the winding overhang portion that are electrically insulated from each other are electrically conductively connected in the connecting portion .
Arrangement for treating a surface with a jet comprising a multiplicity of particles, the arrangement comprising at least: - an outer nozzle , and - at least two inner nozzle units , which are enclosed by the outer nozzle and are designed to introduce in each case a stream of propellant gas mixed with a multiplicity of particles into the outer nozzle , the outer nozzle being designed to combine the streams of propellant gas of the inner nozzle units to form an overall stream of propellant gas, characterized in that at least one of the inner nozzle units comprises at least one particle generator . - an outer nozzle , and - at least two inner nozzle units , which are enclosed by the outer nozzle and are designed to introduce in each case a stream of propellant gas mixed with a multiplicity of particles into the outer nozzle , the outer nozzle being designed to combine the streams of propellant gas of the inner nozzle units to form an overall stream of propellant gas, characterized in that at least one of the inner nozzle units comprises at least one particle generator .
A computer implemented method for reporting power down events in mesh nodes (112-114) without a backup energy storage device comprising: listening , by a powered node in a network , for a heartbeat of a neighboring node, wherein the neighboring node does not have a backup energy storage device; pinging the neighboring node when a heartbeat is not heard within a predefined time period; failing to receive a response to the ping from the neighboring node; in response to failing to receive the response to the ping, response, determining a number of communication failures that are acceptable for the neighboring node before a true failure is declared; continue pinging the neighboring node until the neighboring node responds or until the acceptable number of communication failures has been reached, wherein the acceptable number of communications failures is a preconfigured number specific to the neighboring node based on historic response times of the neighboring node; determining the neighboring node has experienced a power down event when the acceptable number of communication failures has been reached and the neighboring node has failed to respond; and sending , by the powered node , a message toward a head end server indicating the power down event of the neighboring node. listening , by a powered node in a network , for a heartbeat of a neighboring node, wherein the neighboring node does not have a backup energy storage device; pinging the neighboring node when a heartbeat is not heard within a predefined time period; failing to receive a response to the ping from the neighboring node; in response to failing to receive the response to the ping, response, determining a number of communication failures that are acceptable for the neighboring node before a true failure is declared; continue pinging the neighboring node until the neighboring node responds or until the acceptable number of communication failures has been reached, wherein the acceptable number of communications failures is a preconfigured number specific to the neighboring node based on historic response times of the neighboring node; determining the neighboring node has experienced a power down event when the acceptable number of communication failures has been reached and the neighboring node has failed to respond; and sending , by the powered node , a message toward a head end server indicating the power down event of the neighboring node.
A zirconia sintered body comprising an oxide of cerium in an amount of 0.5% by mole or more and less than 4% by mole in terms of CeO 2 ; yttria in an amount of 2% by mole or more and less than 6% by mole; an oxide of aluminum in an amount of 0.1% by weight or more and less than 2% by weight in terms of weight ratio of aluminum oxide (Al 2 O 3 ) relative to the weight of the sintered body; and the balance being zirconia, wherein the oxide of cerium contains trivalent cerium, and the zirconia has a crystal structure including a tetragonal crystal, and wherein the oxide of aluminum comprises at least one selected from the group consisting of spinel (MgAl 2 O 4 ), lanthanum aluminate (LaAl 11 O 19 ), and aluminum oxide.
A device for preparing one, two or more aqueous solutions intended to be sprayed simultaneously or alternatively, using a spray nozzle boom comprised of several boom sections connected in series or in parallel, on a surface such as a cultivated soil, from a mixture of water and of two, three or more additive products, of the type comprising: a main water tank ; • a pump adapted to be connected to each section of the spray nozzle boom; • a first pipe connecting the water tank to said pump, • a second pipe dividing into as many parallel branches connecting the outlet of said pump to each boom section and provided at each branch with a check valve followed by an injection point ; • at least two additive product tanks ; • means for metering the amount of each additive product to be injected into the second pipe to be mixed with water, wherein said means carry out successive batches of different premixtures of water and additive products, wherein each premixture corresponds to an amount of additive products so that these premixtures may be different according to the sections in which they will be injected on the one hand, that they are dosage-modulated in order to obtain on each boom section an ad hoc concentration of additive products in accordance with the predetermined concentration on the other hand, and wherein said device comprises two, three or more buffer tanks adapted to each receive successive premixture batches, and the output of which is connected for each one to a pump and then to the injection points of the branches of the second pipe in order to be able to supply one or more boom sections with premixture, and finally that, after the addition of water to the premixture, by the pump , a constant spray pressure is obtained on each boom section. • a pump adapted to be connected to each section of the spray nozzle boom; • a first pipe connecting the water tank to said pump, • a second pipe dividing into as many parallel branches connecting the outlet of said pump to each boom section and provided at each branch with a check valve followed by an injection point ; • at least two additive product tanks ; • means for metering the amount of each additive product to be injected into the second pipe to be mixed with water,
An expression regulatory system for cell-specific expression of a gene of interest (GOI) comprising: a first nucleic acid that encodes a microRNA (miR) recognition element near its 3'UTR that specifically binds a target cell-specific miR, and encodes a translation suppressor protein; and a second nucleic acid that comprises a suppressor protein interaction motif that binds the translation suppressor protein, and a gene that encodes a protein of interest, wherein the target cell is a cardiomyocyte and the target cell miR is selected from the group consisting of miR1, miR208 and miR1 plus miR208, wherein said first and second nucleic acids are modified RNA (modRNA), wherein the modRNA comprises a modification and the modification is selected from one or more of a substitution of uridine with pseudouridine, a substitution of cytidine with 5-methylcytidine, and a 3'-O-Me-m7G ppp G cap substituted at a 5' end. a first nucleic acid that encodes a microRNA (miR) recognition element near its 3'UTR that specifically binds a target cell-specific miR, and encodes a translation suppressor protein; and a second nucleic acid that comprises a suppressor protein interaction motif that binds the translation suppressor protein, and a gene that encodes a protein of interest, wherein the target cell is a cardiomyocyte and the target cell miR is selected from the group consisting of miR1, miR208 and miR1 plus miR208, wherein said first and second nucleic acids are modified RNA (modRNA), wherein the modRNA comprises a modification and the modification is selected from one or more of a substitution of uridine with pseudouridine, a substitution of cytidine with 5-methylcytidine, and a 3'-O-Me-m7G ppp G cap substituted at a 5' end.
A high-carbon cold rolled steel sheet comprising a composition containing, in mass%, C: 0.45 to 0.75%, Si: 0.10 to 0.50%, Mn: 0.50 to 1.00%, P: 0.03% or less, S: 0.01% or less, sol. Al: 0.10% or less, N: 0.0150% or less, Cr: 0.10% or more and less than 0.40%, optionally one or two or more of Sn: 0.003 to 0.02%, Sb: 0.003 to 0.02%, and As: 0.003 to 0.02%, and the balance including Fe and incidental impurities, and a microstructure in which a mean particle diameter of cementite is 0.40 μm or more and 0.75 μm or less, an average spacing between cementite grains is 1.5 μm or more and 8.0 μm or less, a spheroidizing ratio of cementite is 75% or more, an average size of ferrite grain is 4.0 μm or more and 10.0 μm or less, and the total amount of ferrite and cementite is 95% or more in terms of area fraction, wherein the mean particle diameter of ferrite is found by the method described in the description, the average spacing between cementite grains is found by the method described in the description, and the spheroidizing ratio of cementite is found by the method described in the description, wherein a shear surface ratio of a punched end surface after performing fine blanking processing using a die unit with a clearance between a blanking punch and a die set to 25 μm or less is 90% or more, an arithmetic average roughness Ra of a shear surface of the punched end surface is less than 1.0 μm, and the shear surface ratio of the punched end surface is found by the method described in the description. C: 0.45 to 0.75%, Si: 0.10 to 0.50%, Mn: 0.50 to 1.00%, P: 0.03% or less, S: 0.01% or less, sol. Al: 0.10% or less, N: 0.0150% or less, Cr: 0.10% or more and less than 0.40%, optionally one or two or more of Sn: 0.003 to 0.02%, Sb: 0.003 to 0.02%, and As: 0.003 to 0.02%, and the balance including Fe and incidental impurities, and a microstructure in which a mean particle diameter of cementite is 0.40 μm or more and 0.75 μm or less, an average spacing between cementite grains is 1.5 μm or more and 8.0 μm or less, a spheroidizing ratio of cementite is 75% or more, an average size of ferrite grain is 4.0 μm or more and 10.0 μm or less, and the total amount of ferrite and cementite is 95% or more in terms of area fraction, wherein the mean particle diameter of ferrite is found by the method described in the description, the average spacing between cementite grains is found by the method described in the description, and the spheroidizing ratio of cementite is found by the method described in the description, wherein a shear surface ratio of a punched end surface after performing fine blanking processing using a die unit with a clearance between a blanking punch and a die set to 25 μm or less is 90% or more, an arithmetic average roughness Ra of a shear surface of the punched end surface is less than 1.0 μm, and the shear surface ratio of the punched end surface is found by the method described in the description.
A computer-implemented method for monitoring movement of anatomical features throughout a radiation treatment session, the method comprising: monitoring the movement of the anatomical features with a first modality; initiating a scan to obtain positional information of the anatomical features with a second modality over a finite acquisition time; and ending the scan in response to detecting a clinically relevant movement associated with the anatomical features during the finite acquisition time based on the monitored movement from the first modality. monitoring the movement of the anatomical features with a first modality; initiating a scan to obtain positional information of the anatomical features with a second modality over a finite acquisition time; and ending the scan in response to detecting a clinically relevant movement associated with the anatomical features during the finite acquisition time based on the monitored movement from the first modality.
A synchronous reluctance motor comprising: a rotating shaft extending along a central axis (O); a rotor core externally fitted and fixed to the rotating shaft ; a stator core including, on an inner surface of the stator core , a plurality of teeth protruding towards the central axis (O) and arranged at regular intervals in a circumferential direction; and multipole multiphase armature windings respectively wound around the plurality of teeth , characterized in that a plurality of flux barriers are formed in each quarter- circumferential angular region in the rotor core , wherein said flux barriers are a plurality of hollow portions , the plurality of hollow portions are curved toward a radial inner side so that each of the centers in the circumferential direction is positioned on a radial innermost side in the quarter-circumference circumferential angular region of the rotor core, the plurality of hollow portions are disposed side by side in a radial direction, and the ratio of the occupied area of the flux barriers to the entire area on a main surface, perpendicular to the rotational axis, of the rotor core is set to 35% to 39%. a rotating shaft extending along a central axis (O); a rotor core externally fitted and fixed to the rotating shaft ; a stator core including, on an inner surface of the stator core , a plurality of teeth protruding towards the central axis (O) and arranged at regular intervals in a circumferential direction; and multipole multiphase armature windings respectively wound around the plurality of teeth , a plurality of flux barriers are formed in each quarter- circumferential angular region in the rotor core , wherein said flux barriers are a plurality of hollow portions , the plurality of hollow portions are curved toward a radial inner side so that each of the centers in the circumferential direction is positioned on a radial innermost side in the quarter-circumference circumferential angular region of the rotor core, the plurality of hollow portions are disposed side by side in a radial direction, and the ratio of the occupied area of the flux barriers to the entire area on a main surface, perpendicular to the rotational axis, of the rotor core is set to 35% to 39%.
A component mounting device comprising: a rotary type head on a circumference of which a plurality of nozzles that are able to suck a component (P) are disposed; control means for controlling the head such that the plurality of nozzles are sequentially moved above a supply position of a component supply device as a target position so as to suck the component (P) and controlling the head such that the plurality of nozzles are sequentially moved above a mounting position of a mounting target as a target position so as to mount the component (P) on the mounting target; side imaging means for acquiring a post-suction image by imaging the nozzle from the side after suction of the component (P) and for acquiring a pre-mounting image by imaging the nozzle from the side prior to mounting of the component (P) after acquiring the post-suction image, and determination means for determining a posture change of the component (P) from after suction of the component (P) to prior to mounting of the component (P) based on the post-suction image and the pre-mounting image. a rotary type head on a circumference of which a plurality of nozzles that are able to suck a component (P) are disposed; control means for controlling the head such that the plurality of nozzles are sequentially moved above a supply position of a component supply device as a target position so as to suck the component (P) and controlling the head such that the plurality of nozzles are sequentially moved above a mounting position of a mounting target as a target position so as to mount the component (P) on the mounting target; side imaging means for acquiring a post-suction image by imaging the nozzle from the side after suction of the component (P) and for acquiring a pre-mounting image by imaging the nozzle from the side prior to mounting of the component (P) after acquiring the post-suction image, and determination means for determining a posture change of the component (P) from after suction of the component (P) to prior to mounting of the component (P) based on the post-suction image and the pre-mounting image.
A ride vibrator , comprising: a shaft (194;254); an eccentric mass (196;256) coupled to the shaft (194;254), wherein the eccentric mass (196;256) is configured to vibrate the shaft (194;254) in response to rotation of the shaft (194;254); a vibrator housing configured to receive the shaft (194;254) and the eccentric mass (196;256), wherein the vibrator housing is configured to couple to a ride vehicle; a bearing coupled to the shaft (194;254), wherein the bearing is configured to transfer shaft (194;254) vibrations to the vibrator housing; a motor (190;250) coupled to the shaft (194;254) and configured to rotate the shaft (194;254); and an input device comprising a first touch-sensitive sensor disposed on a first handle portion of a handle (20; 102; 134) and a second touch-sensitive sensor disposed on a second handle portion of the handle (20; 102; 134), wherein the input device is configured to couple to the motor (190;250), wherein the input device is configured to receive a selection of a change to a rotational speed of the motor (190;250) to control vibration of the vibrator in response to a rider contacting the first handle portion of the handle (20; 102; 134) or the second handle portion of the handle (20; 102; 134). a shaft (194;254); an eccentric mass (196;256) coupled to the shaft (194;254), wherein the eccentric mass (196;256) is configured to vibrate the shaft (194;254) in response to rotation of the shaft (194;254); a vibrator housing configured to receive the shaft (194;254) and the eccentric mass (196;256), wherein the vibrator housing is configured to couple to a ride vehicle; a bearing coupled to the shaft (194;254), wherein the bearing is configured to transfer shaft (194;254) vibrations to the vibrator housing; a motor (190;250) coupled to the shaft (194;254) and configured to rotate the shaft (194;254); and an input device comprising a first touch-sensitive sensor disposed on a first handle portion of a handle (20; 102; 134) and a second touch-sensitive sensor disposed on a second handle portion of the handle (20; 102; 134), wherein the input device is configured to couple to the motor (190;250), wherein the input device is configured to receive a selection of a change to a rotational speed of the motor (190;250) to control vibration of the vibrator in response to a rider contacting the first handle portion of the handle (20; 102; 134) or the second handle portion of the handle (20; 102; 134).
A cabin for an agricultural working vehicle , comprising a cabin floor , a cabin body disposed thereon which consists of a frame structure, as well as a cabin roof which comprises at least two shells , wherein the cabin roof is configured as a prefabricated module which can be positioned on the cabin body, and in that an air treatment device is disposed between the at least two shells of the cabin roof configured as a prefabricated module, wherein the at least two shells contain an upper shell and a lower shell , and the air treatment device is inserted into the lower shell, characterized in that the air treatment device has inclined bearing surfaces which, in the mounted position, are flush with complementary bearing surfaces , wherein the inclined bearing surfaces and the complementary bearing surfaces are configured in order to position the air treatment device in an interlocking manner.