mhurhangee/patent-ind-claim-en huggingface dataset:
A radiation treatment delivery system comprising: a volumetric imager to acquire a first image of a target within a patient (710; 830); a linear accelerator "LINAC" to deliver a radiation treatment; and a processing device (602, 625, 640; 1230), operatively coupled with the volumetric imager and the LINAC, to: receive , from the volumetric imager, the first image; receive a second image including the target; and track a position of the target using the first image and the second image deliver a radiation treatment according to a radiation treatment plan, wherein the radiation treatment plan identifies a set of positions for the LINAC during the radiation treatment delivery, and wherein the set of positions for the LINAC is a filtered set of positions comprising positions that do not violate a treatment time constraint. a volumetric imager to acquire a first image of a target within a patient (710; 830); a linear accelerator "LINAC" to deliver a radiation treatment; and a processing device (602, 625, 640; 1230), operatively coupled with the volumetric imager and the LINAC, to: receive , from the volumetric imager, the first image; receive a second image including the target; and track a position of the target using the first image and the second image deliver a radiation treatment according to a radiation treatment plan, wherein the radiation treatment plan identifies a set of positions for the LINAC during the radiation treatment delivery, and wherein the set of positions for the LINAC is a filtered set of positions comprising positions that do not violate a treatment time constraint. receive , from the volumetric imager, the first image; receive a second image including the target; and track a position of the target using the first image and the second image deliver a radiation treatment according to a radiation treatment plan, wherein the radiation treatment plan identifies a set of positions for the LINAC during the radiation treatment delivery, and wherein the set of positions for the LINAC is a filtered set of positions comprising positions that do not violate a treatment time constraint.
A communication method for a high-voltage pulse generator, wherein the high-voltage pulse generator comprises a master controller (H) and a sub-controller (G), with data transmitted between the master controller (H) and the sub-controller (G) at least comprising a first class of data and a second class of data, and the second class of data at least comprises two types, and the high-voltage pulse generator has higher requirements for real time performance of the first class of data than the second class of data; the method comprises the following steps: during a present instance of transmitting the first class of data, transmitting partial types of the second class of data (S101); and during a next instance of transmitting the first class of data, transmitting other types of the second class of data; and repeatedly executing the step until the transmission of all types of the second class of data is completed (S 102); characterized in that during each instance of transmitting the first class of data, partial types of the first class of data are transmitted; and the number M of instances of transmission required for transmitting all types of the first class of data is less than the number N of instance of transmission required for transmitting all types of the second class of data; before the transmission of all types of the second class of data is completed, the transmission of all types of the first class of data is completed. during a present instance of transmitting the first class of data, transmitting partial types of the second class of data (S101); and during a next instance of transmitting the first class of data, transmitting other types of the second class of data; and repeatedly executing the step until the transmission of all types of the second class of data is completed (S 102); characterized in that during each instance of transmitting the first class of data, partial types of the first class of data are transmitted; and the number M of instances of transmission required for transmitting all types of the first class of data is less than the number N of instance of transmission required for transmitting all types of the second class of data; before the transmission of all types of the second class of data is completed, the transmission of all types of the first class of data is completed.
A light source device comprising: a first light source that is configured to emit light of a first wavelength band; a second light source that is configured to emit light of a second wavelength band which is different from the first wavelength band; and a composite dichroic mirror that has a first area and a second area which optical characteristics are different from optical characteristics of the first area , wherein the composite dichroic mirror reflects the light of the first wavelength band while transmitting the light of the second wavelength band, the light of the first wavelength band is radiated corresponding to the first area and the second area of the composite dichroic mirror , the light of the second wavelength band is radiated corresponding to the first area of the composite dichroic mirror , characterized in that the light of the second wavelength band is radiated onto the first area via a reduction optical member which is configured to reduce a flux of light to the dimensions of the first area . a first light source that is configured to emit light of a first wavelength band; a second light source that is configured to emit light of a second wavelength band which is different from the first wavelength band; and a composite dichroic mirror that has a first area and a second area which optical characteristics are different from optical characteristics of the first area , wherein the composite dichroic mirror reflects the light of the first wavelength band while transmitting the light of the second wavelength band, the light of the first wavelength band is radiated corresponding to the first area and the second area of the composite dichroic mirror , the light of the second wavelength band is radiated corresponding to the first area of the composite dichroic mirror , characterized in that the light of the second wavelength band is radiated onto the first area via a reduction optical member which is configured to reduce a flux of light to the dimensions of the first area .
Method for operating a circuit arrangement (ASIC) having a signal processor (SP), a clock signal generator (LPO) and having a reference clock signal generator (RO), - wherein the circuit arrangement (ASIC) is clocked by means of the clock signal generator (LPO) and is designed to take a prescribed sensor signal (S_MR) as a basis for either incrementing or decrementing at least one count of a counter signal (S_CNT1, S_CNT2) for at least one counter (CNT1, CNT2) and - the method involves a clock signal, which is prescribed by the switched-on clock signal generator (LPO), at a first frequency being monitored after the reference clock signal generator (RO) is switched on, wherein, for the monitoring, - the signal processor (SP) is designed so as, after it is switched on, to detect the first frequency of the clock signal generator (LPO) such that the ratio between the first frequency of the clock signal generator (LPO) and a prescribed second frequency of a reference clock signal of the reference clock signal generator (RO) is ascertained and - a ratio that the signal processor (SP) ascertains between the first frequency and the second frequency is taken as a basis for signalling an error, specifically such that a ratio outside a prescribed ratio range results in the at least one count of the counter signal (S_CNT1, S_CNT2) being identified and signalled as invalid, wherein periodic monitoring of the first frequency is performed while the signal processor (SP) is switched on, and counts from before the monitoring are also identified and signalled as invalid. - wherein the circuit arrangement (ASIC) is clocked by means of the clock signal generator (LPO) and is designed to take a prescribed sensor signal (S_MR) as a basis for either incrementing or decrementing at least one count of a counter signal (S_CNT1, S_CNT2) for at least one counter (CNT1, CNT2) and - the method involves a clock signal, which is prescribed by the switched-on clock signal generator (LPO), at a first frequency being monitored after the reference clock signal generator (RO) is switched on, wherein, for the monitoring, - the signal processor (SP) is designed so as, after it is switched on, to detect the first frequency of the clock signal generator (LPO) such that the ratio between the first frequency of the clock signal generator (LPO) and a prescribed second frequency of a reference clock signal of the reference clock signal generator (RO) is ascertained and - a ratio that the signal processor (SP) ascertains between the first frequency and the second frequency is taken as a basis for signalling an error, specifically such that a ratio outside a prescribed ratio range results in the at least one count of the counter signal (S_CNT1, S_CNT2) being identified and signalled as invalid, wherein periodic monitoring of the first frequency is performed while the signal processor (SP) is switched on, and counts from before the monitoring are also identified and signalled as invalid.
A method for producing a silica aerogel blanket, the method comprising: 1) separately injecting silica sol and a gelation catalyst into an impregnation tank in which a blanket is present; 2) impregnating the blanket with the silica sol and the gelation catalyst separately injected into the impregnation tank ; 3) transferring the blanket impregnated with the silica sol and the gelation catalyst to a moving element through an ascending slope ; and 4) gelling the impregnated blanket on the moving element . 1) separately injecting silica sol and a gelation catalyst into an impregnation tank in which a blanket is present; 2) impregnating the blanket with the silica sol and the gelation catalyst separately injected into the impregnation tank ; 3) transferring the blanket impregnated with the silica sol and the gelation catalyst to a moving element through an ascending slope ; and 4) gelling the impregnated blanket on the moving element .
Hand-operated inhaler for dispensing a powdery substance, in particular a pharmaceutical substance, comprising a storage chamber, a discharge channel and a dosing chamber , the discharge channel protruding into the storage chamber and the dosing chamber and the discharge channel being movable relative to one another, the discharge channel being rotatable about an axis of rotation (A) and it being possible to fill the dosing chamber in the course of a rotation of the discharge channel , characterised in that the dosing chamber comprises, on the side thereof opposite the discharge channel , an opening which can be closed by a stopper , and in that the dosing chamber can be lifted up from the stopper .
A data transmission method, wherein the method is applied to an optical transport network, and the method comprises: determining total bandwidth ofN slice containers based on a reference unit, wherein the reference unit is minimum bandwidth of a service of transmitting data, the total bandwidth of the N slice containers is an integer multiple of the reference unit, each slice container comprises slice data, the slice data is data obtained after slice processing is performed on the data, and N is an integer greater than or equal to 2; determining , based on the total bandwidth of the N slice containers and an available link resource, M links for carrying the N slice containers, wherein M is an integer greater than or equal to 1; and adding the N slice containers to the M links, and sending the data to a receive end through the different links, characterised in that , each slice container further comprises a sequence identifier, the sequence identifier is obtained by encoding the N slice containers according to a preset rule, and the sequence identifier is used to indicate sorting of the N slice containers; wherein the M links comprise a first link and a second link; and the adding the N slice containers to the M links comprises: adding K slice containers in the N slice containers based on a bandwidth ratio of the first link to the second link, wherein a quantity of slice containers to be carried on the first link and a quantity of slice containers to be carried on the second link are determined based on the bandwidth ratio of the first link to the second link, and K ≤ N. determining total bandwidth ofN slice containers based on a reference unit, wherein the reference unit is minimum bandwidth of a service of transmitting data, the total bandwidth of the N slice containers is an integer multiple of the reference unit, each slice container comprises slice data, the slice data is data obtained after slice processing is performed on the data, and N is an integer greater than or equal to 2; determining , based on the total bandwidth of the N slice containers and an available link resource, M links for carrying the N slice containers, wherein M is an integer greater than or equal to 1; and adding the N slice containers to the M links, and sending the data to a receive end through the different links, characterised in that , each slice container further comprises a sequence identifier, the sequence identifier is obtained by encoding the N slice containers according to a preset rule, and the sequence identifier is used to indicate sorting of the N slice containers; wherein the M links comprise a first link and a second link; and the adding the N slice containers to the M links comprises: adding K slice containers in the N slice containers based on a bandwidth ratio of the first link to the second link, wherein a quantity of slice containers to be carried on the first link and a quantity of slice containers to be carried on the second link are determined based on the bandwidth ratio of the first link to the second link, and K ≤ N.
A track pin (300, 300', 300", 300''') for use with a track chain of a vehicle that includes a plurality of track pins (300, 300', 300", 300''') and bushings , the track pin (300, 300', 300", 300''') comprising: a body that includes a generally cylindrical configuration defining an axis of rotation (A), a circumferential direction (C) and a radial direction (R), the body defining a first end , a second end and a peripheral surface extending from the first end to the second end , the peripheral surface including a first lobed portion spaced axially away from the first end and the second end and including a series of convex arcuate segments and concave arcuate segments joined to each other tangentially, forming an undulating surface. a body that includes a generally cylindrical configuration defining an axis of rotation (A), a circumferential direction (C) and a radial direction (R), the body defining a first end , a second end and a peripheral surface extending from the first end to the second end , the peripheral surface including a first lobed portion spaced axially away from the first end and the second end and including a series of convex arcuate segments and concave arcuate segments joined to each other tangentially, forming an undulating surface.
A turbine blade for a gas turbine engine, comprising a pressure side, a suction side and a tip surface , a cooling slot located on the tip surface of the turbine blade, the cooling slot being defined by a plurality of diffuser portions each extending from a respective one of a plurality of cooling openings providing cooling fluid to the cooling slot, wherein each of the plurality of diffuser portions merges with another one of the plurality of diffuser portions below the surface of the blade tip and each of the plurality of diffuser portions are defined by a diffuser angle with respect to said respective one of the cooling openings.
A dummy block for a metal extrusion press comprising: a generally cylindrical base having a forward surface and an outwardly extending circumferential flange ; an expandable collar coupled to the base , the collar having an inwardly extending circumferential rib abutting the circumferential flange ; a plunger disc seated against the forward surface of the base and accommodated by the collar ; and a plunger shaft extending through the plunger disc and coupled to the base , wherein the circumferential flange of the base has an outer surface having a rear cylindrical portion and a forward beveled portion , and wherein the forward surface of the base comprises a planar central portion , and a beveled portion surrounding the central portion . a generally cylindrical base having a forward surface and an outwardly extending circumferential flange ; an expandable collar coupled to the base , the collar having an inwardly extending circumferential rib abutting the circumferential flange ; a plunger disc seated against the forward surface of the base and accommodated by the collar ; and a plunger shaft extending through the plunger disc and coupled to the base , wherein the circumferential flange of the base has an outer surface having a rear cylindrical portion and a forward beveled portion , and wherein the forward surface of the base comprises a planar central portion , and a beveled portion surrounding the central portion .
Spreadable granulate being suitable for use as infill granulate for grass and artificial turf fields, the spreadable granulate comprising a polymer matrix with a percentage between 10% by mass and 100% by mass of at least one biodegradable polymer and at least one filler from the group of natural fillers being embedded in the polymer matrix with the at least one biodegradable polymer, characterized in that the granulate comprises at least one filler from the group of the comminuted fruit kernels.
A gas turbine engine comprising an electrical harness, wherein: at least a part of the electrical harness is formed by a rigid structure having an electrical system comprising electrical conductors embedded therein forming an electrical raft, the rigid structure further having one or more sensors embedded therein such that the electrical conductors and the sensors are surrounded, and thereby fixed in position, by the rigid material of the rigid structure; and the rigid structure is formed of rigid composite material; wherein the electrical conductors embedded in the electrical raft comprise electrically conductive tracks in a flexible printed circuit board and at least one electrically conductive wire which is individually surrounded by an electrically insulating sleeve. at least a part of the electrical harness is formed by a rigid structure having an electrical system comprising electrical conductors embedded therein forming an electrical raft, the rigid structure further having one or more sensors embedded therein such that the electrical conductors and the sensors are surrounded, and thereby fixed in position, by the rigid material of the rigid structure; and the rigid structure is formed of rigid composite material; wherein the electrical conductors embedded in the electrical raft comprise electrically conductive tracks in a flexible printed circuit board and at least one electrically conductive wire which is individually surrounded by an electrically insulating sleeve.
A method for producing a compound represented by the following formula (I): the production method comprising, as shown in the following reaction formula: the steps of acylating an amino group at position 2 of a compound represented by formula (A) in the presence of trifluoroacetic acid as an acylating agent, a reagent (X), and a base, to thereby produce a compound represented by formula (B); and further alkylating a nitrogen atom at position 1 of the compound represented by formula (B) by use of a compound represented by formula (C), wherein the reagent (X) used simultaneously with the acylating agent is thionyl chloride, the base used in the reaction of the compound represented by formula (B) is pyridine or N-methylimidazole, and a solvent used in the reaction of the compound represented by formula (B) is an ether-based or ester-based solvent.
A method of operating a system to propagate document changes in a collaborative environment, the system comprising a plurality of clients, a server in communication with the clients, and one or more processors, the plurality of clients being configured to provide edits to a document, the method comprising the steps of: detecting an edit type associated with a document change made by a first user in the collaborative environment; propagating , by the one or more processors, the document change to a server using operational transformation if the edit type has full operational transformation support, wherein an edit of said edit type comprises any one of creating, deleting and moving objects, or editing text; propagating , by the one or more processors, the document change to the server using opaque operations if the edit type indicates that the document change has occurred in a particular area in the document but does not indicate details of the document change, wherein the opaque operation comprises a blob representative of the change, and wherein if the opaque operation modifies a state of an embedded object, the opaque operation requires that the object exists and that the object is in an expected place regardless of the state of the embedded object; and propagating , by the one or more processors, the document change to the server using a binary synchronization if the edit type is completely opaque, wherein an edit of said edit type indicates that the document change affects the entirety of the document, wherein for the binary synchronization, a representation of the entire document is treated as an opaque blob. detecting an edit type associated with a document change made by a first user in the collaborative environment; propagating , by the one or more processors, the document change to a server using operational transformation if the edit type has full operational transformation support, wherein an edit of said edit type comprises any one of creating, deleting and moving objects, or editing text; propagating , by the one or more processors, the document change to the server using opaque operations if the edit type indicates that the document change has occurred in a particular area in the document but does not indicate details of the document change, wherein the opaque operation comprises a blob representative of the change, and wherein if the opaque operation modifies a state of an embedded object, the opaque operation requires that the object exists and that the object is in an expected place regardless of the state of the embedded object; and propagating , by the one or more processors, the document change to the server using a binary synchronization if the edit type is completely opaque, wherein an edit of said edit type indicates that the document change affects the entirety of the document, wherein for the binary synchronization, a representation of the entire document is treated as an opaque blob.