mhurhangee/ep-ind-claims huggingface dataset:
A method for preparing a styrene-acrylonitrile melt comprising the steps of: - providing a screw machine having a styrene-acrylonitrile melt contained therein, wherein styrene-acrylonitrile is fed into the screw machine by means of a first feeding device, - feeding an entraining agent by means of a first entraining agent feeding means into the styrene-acrylonitrile melt in a feeding direction of the screw machine upstream to a feeding zone of a rubber so that the entraining agent is fed prior to feeding the rubber, - mixing the styrene-acrylonitrile melt with the fed entraining agent by means of the screw machine to form a mixture (Mi), - degassing of the mixture formed (M 1) in the screw machine, and - feeding the rubber into the styrene-acrylonitrile melt by means of a second feeding device, wherein the second feeding device opens into the screw machine in the feeding zone. - providing a screw machine having a styrene-acrylonitrile melt contained therein, wherein styrene-acrylonitrile is fed into the screw machine by means of a first feeding device, - feeding an entraining agent by means of a first entraining agent feeding means into the styrene-acrylonitrile melt in a feeding direction of the screw machine upstream to a feeding zone of a rubber so that the entraining agent is fed prior to feeding the rubber, - mixing the styrene-acrylonitrile melt with the fed entraining agent by means of the screw machine to form a mixture (Mi), - degassing of the mixture formed (M 1) in the screw machine, and - feeding the rubber into the styrene-acrylonitrile melt by means of a second feeding device, wherein the second feeding device opens into the screw machine in the feeding zone.
A method for automatically planning radiation-based treatment of a treatment volume within breast tissue of a particular patient, the method comprising: by a control circuit: accessing imaging information for a treatment zone that includes the treatment volume of the particular patient; employing the imaging information and employing deep learning to automatically segment at least some breast tissue of the particular patient and non-deep learning to automatically segment at least portions of some organs-at-risk to provide automatically segmented patient content; employing the imaging information to automatically determine a virtual-skin volume corresponding to at least portions of the breast tissue of the particular patient; employing the automatically segmented patient content and the virtual-skin volume as input to automatically optimize a radiation treatment plan for the treatment volume of this particular patient and thereby provide an optimized radiation treatment plan for the particular patient. accessing imaging information for a treatment zone that includes the treatment volume of the particular patient; employing the imaging information and employing deep learning to automatically segment at least some breast tissue of the particular patient and non-deep learning to automatically segment at least portions of some organs-at-risk to provide automatically segmented patient content; employing the imaging information to automatically determine a virtual-skin volume corresponding to at least portions of the breast tissue of the particular patient; employing the automatically segmented patient content and the virtual-skin volume as input to automatically optimize a radiation treatment plan for the treatment volume of this particular patient and thereby provide an optimized radiation treatment plan for the particular patient.
A scanning transmission electron microscopy (STEM) system, comprising: an electron beam scanning system configured to generate a plurality of electron beam scans over substantially an entire sample, with each said scan varying arbitrarily in electron-illumination intensity over a course of the scan to form a different mask, and wherein each said different mask forms an arbitrarily varying pattern of dimly and brightly electron-illuminated regions on the sample produced by the arbitrarily varying electron-illumination intensity; a signal acquisition system arranged for obtaining a dataset from the scans by using a plurality of signals obtained simultaneously with a parallel detection system the dataset representing only information from at least one of a select subplurality or linear combination of all pixels comprising the image; and a subsystem arranged for mathematically analyzing the dataset, using a compressive sensing mathematical method to predict actual information that would have been produced by each pixel in a conventional STEM acquisition. an electron beam scanning system configured to generate a plurality of electron beam scans over substantially an entire sample, with each said scan varying arbitrarily in electron-illumination intensity over a course of the scan to form a different mask, and wherein each said different mask forms an arbitrarily varying pattern of dimly and brightly electron-illuminated regions on the sample produced by the arbitrarily varying electron-illumination intensity; a signal acquisition system arranged for obtaining a dataset from the scans by using a plurality of signals obtained simultaneously with a parallel detection system the dataset representing only information from at least one of a select subplurality or linear combination of all pixels comprising the image; and a subsystem arranged for mathematically analyzing the dataset, using a compressive sensing mathematical method to predict actual information that would have been produced by each pixel in a conventional STEM acquisition.
A beverage system, comprising: a housing; a brew basket connected to said housing and being movable between a retracted position and an extended position, said brew basket including at least one outlet, wherein said at least one outlet is sealed when said brew basket is moved from said retracted position to said extended position; and a support pivotally mounted to a portion of the housing; a collar mounted concentrically within a portion of the support; the collar being attached via a linkage to a portion of the housing and configured to rotate relative to the support as the support pivots between the retracted and extended positions of the brew basket; the brew basket being receivable within a hollow interior of the support and the collar; said beverage system being characterised in that said at least one outlet includes a siphon having a pipe fluidly coupled to a brew chamber of said brew basket; and the support or the collar is configured to apply a pressure to, or to squeeze, the pipe to restrict a flow therethrough when the support is rotated to an extended position relative to the housing. a housing; a brew basket connected to said housing and being movable between a retracted position and an extended position, said brew basket including at least one outlet, wherein said at least one outlet is sealed when said brew basket is moved from said retracted position to said extended position; and a support pivotally mounted to a portion of the housing; a collar mounted concentrically within a portion of the support; the collar being attached via a linkage to a portion of the housing and configured to rotate relative to the support as the support pivots between the retracted and extended positions of the brew basket; the brew basket being receivable within a hollow interior of the support and the collar; said beverage system being characterised in that said at least one outlet includes a siphon having a pipe fluidly coupled to a brew chamber of said brew basket; and the support or the collar is configured to apply a pressure to, or to squeeze, the pipe to restrict a flow therethrough when the support is rotated to an extended position relative to the housing. said beverage system being characterised in that said at least one outlet includes a siphon having a pipe fluidly coupled to a brew chamber of said brew basket; and the support or the collar is configured to apply a pressure to, or to squeeze, the pipe to restrict a flow therethrough when the support is rotated to an extended position relative to the housing.
A cutting element, comprising: a supporting substrate; and a polycrystalline compact attached to an end of the supporting substrate and comprising: a region adjacent the end of the supporting substrate; and another region laterally circumscribing the region and having lesser permeability than the region; and an additional region extending inward from a cutting face of the polycrystalline compact overlying the region and the another region such that the additional region covers upper portions of the region and the another region, wherein the additional region has a different permeability to the region and to the another region. a supporting substrate; and a polycrystalline compact attached to an end of the supporting substrate and comprising: a region adjacent the end of the supporting substrate; and another region laterally circumscribing the region and having lesser permeability than the region; and an additional region extending inward from a cutting face of the polycrystalline compact overlying the region and the another region such that the additional region covers upper portions of the region and the another region, wherein the additional region has a different permeability to the region and to the another region. a region adjacent the end of the supporting substrate; and another region laterally circumscribing the region and having lesser permeability than the region; and an additional region extending inward from a cutting face of the polycrystalline compact overlying the region and the another region such that the additional region covers upper portions of the region and the another region, wherein the additional region has a different permeability to the region and to the another region.
A rubber composition for a tire, comprising: a rubber component including 15 to 55 wt% of an end modified group-containing cycloolefin ring-opening polymer having a glass transition temperature of -120 to -90°C and 45 to 85 wt% of an end modified group-containing solution polymerized conjugated diene polymer having a glass transition temperature of -60 to -10°C and having an aromatic vinyl monomer units content ratio of more than 30 wt% and 50 wt% or less, a silica, and a silane coupling agent including a monosulfide group and/or a thiol group, wherein a content of the silica with respect to 100 parts by weight of the rubber component is 30 to 200 parts by weight, and a content of the silane coupling agent including a monosulfide group and/or a thiol group with respect to 100 parts by weight of the silica is 0.3 to 20 parts by weight. a rubber component including 15 to 55 wt% of an end modified group-containing cycloolefin ring-opening polymer having a glass transition temperature of -120 to -90°C and 45 to 85 wt% of an end modified group-containing solution polymerized conjugated diene polymer having a glass transition temperature of -60 to -10°C and having an aromatic vinyl monomer units content ratio of more than 30 wt% and 50 wt% or less, a silica, and a silane coupling agent including a monosulfide group and/or a thiol group, wherein a content of the silica with respect to 100 parts by weight of the rubber component is 30 to 200 parts by weight, and a content of the silane coupling agent including a monosulfide group and/or a thiol group with respect to 100 parts by weight of the silica is 0.3 to 20 parts by weight.
Pruning tool (100, 200, 300, 400), in particular a branch pruner, a lopper or a secateur, comprising an elongated handle (102, 202, 302, 402), whereby a movable working device is arranged at a first end portion of the handle, further comprising an actuation handle (114, 214, 314, 414) being arranged on the elongated handle (102, 202, 302, 402) and being movable along the elongated handle (102, 202, 302, 402) between a first position and a second position, further comprising a stop element (116, 216, 316, 416) being fixed on the handle (102, 202, 302, 402) in order to limit the movement of the actuation handle (114, 214, 314, 414) in the direction of the working device, whereby the actuation handle (114, 214, 314, 414) is coupled to the working device by means of a pulling member (122, 222, 322, 422) in order to transmit actuating forces on the working device, characterised in that in order to perform a first cutting action a first end (124, 224, 324, 424) of the pulling member (122, 222, 322, 422) is detachable fixable to the stop element (116, 216, 316, 416) and in order to perform a second cutting action the first end (124, 224, 324, 424) of the pulling member (122, 222, 322, 422) is detachable fixable to the actuation handle (114, 214, 314, 414).
A fusion protein comprising: (a) a zinc finger protein comprising a non-canonical zinc finger, wherein the non-canonical zinc finger is a non-C2H2 zinc finger and has a helical portion involved in DNA binding and wherein the zinc-coordinating region of the helical portion comprises the amino acid sequence HTRRCG; and wherein the zinc finger protein is engineered to bind to a target sequence, and (b) one or more functional domains, wherein one functional domain comprises a cleavage half-domain, and (c) a ZC linker interposed between the cleavage half-domain and the zinc finger protein, wherein the amino acid sequence between the zinc finger protein and cleavage half-domain is denoted ZC linker. (a) a zinc finger protein comprising a non-canonical zinc finger, wherein the non-canonical zinc finger is a non-C2H2 zinc finger and has a helical portion involved in DNA binding and wherein the zinc-coordinating region of the helical portion comprises the amino acid sequence HTRRCG; and wherein the zinc finger protein is engineered to bind to a target sequence, and (b) one or more functional domains, wherein one functional domain comprises a cleavage half-domain, and (c) a ZC linker interposed between the cleavage half-domain and the zinc finger protein,
An in vitro method for diagnosing non small cell lung cancer in an individual with a smoking history, the method comprising: providing a biomarker panel comprising N of the biomarker proteins in Table 1, detecting biomarker proteins, in a biological sample from an individual, to give biomarker values that each correspond to one of said N biomarker proteins in the panel, wherein the likelihood of the individual having non small cell lung cancer is determined based on said biomarker values, and wherein N = 3 - 61, and wherein the biological sample is selected from the group consisting of whole blood, plasma, serum, and lung tissue. providing a biomarker panel comprising N of the biomarker proteins in Table 1, detecting biomarker proteins, in a biological sample from an individual, to give biomarker values that each correspond to one of said N biomarker proteins in the panel, wherein the likelihood of the individual having non small cell lung cancer is determined based on said biomarker values, and wherein N = 3 - 61, and wherein the biological sample is selected from the group consisting of whole blood, plasma, serum, and lung tissue.
A thermoelectric element comprising: an n-type superlattice structure comprising alternating layers of a first material and a second material other than said first material, wherein polar interfaces (I-n) with an excess of electrons are formed between said alternating layers in each case, a p-type superlattice structure comprising alternating layers of the first material and the second material other than said first material, wherein polar interfaces (I-p) with an excess of holes are formed between said alternating layers in each case, wherein the n-type superlattice structure and the p-type superlattice structure have a connection, and wherein the polar interfaces with an excess of holes differ from the polar interfaces with an excess of electrons by the termination of said layers of the first material and the second material at said interfaces. an n-type superlattice structure comprising alternating layers of a first material and a second material other than said first material, wherein polar interfaces (I-n) with an excess of electrons are formed between said alternating layers in each case, a p-type superlattice structure comprising alternating layers of the first material and the second material other than said first material, wherein polar interfaces (I-p) with an excess of holes are formed between said alternating layers in each case, wherein the n-type superlattice structure and the p-type superlattice structure have a connection, and wherein the polar interfaces with an excess of holes differ from the polar interfaces with an excess of electrons by the termination of said layers of the first material and the second material at said interfaces.
A method for data processing in a mobile communication network, comprising: - establishing a primary PDP context between the mobile terminal and an anchor node; - conveying a control information between a mobile terminal and an anchor node within said mobile communication network; wherein the control information enables the mobile terminal to decide whether or not to initiate handover for its bearers or a selection thereof; - based on said control information, conducting a handover synchronization between a source network and a target access network utilizing an intermediate state of a mobility management, wherein the source access network is a non 3G access network and the target access network is a 3G access network; - wherein the intermediate state, resources requested are reserved along the path between the mobile terminal and the anchor node, and the resources requested are reserved to be used for transferring data while said resources requested are not yet used for transferring data; - wherein at least one secondary PDP context for an application running on the mobile terminal to be transferred to the 3G access network at least temporarily comprises such intermediate state, - establishing a primary PDP context between the mobile terminal and an anchor node; - conveying a control information between a mobile terminal and an anchor node within said mobile communication network; wherein the control information enables the mobile terminal to decide whether or not to initiate handover for its bearers or a selection thereof; - based on said control information, conducting a handover synchronization between a source network and a target access network utilizing an intermediate state of a mobility management, wherein the source access network is a non 3G access network and the target access network is a 3G access network; - conveying a control information between a mobile terminal and an anchor node within said mobile communication network; wherein the control information enables the mobile terminal to decide whether or not to initiate handover for its bearers or a selection thereof; - based on said control information, conducting a handover synchronization between a source network and a target access network utilizing an intermediate state of a mobility management, wherein the source access network is a non 3G access network and the target access network is a 3G access network; - wherein the intermediate state, resources requested are reserved along the path between the mobile terminal and the anchor node, and the resources requested are reserved to be used for transferring data while said resources requested are not yet used for transferring data; - wherein at least one secondary PDP context for an application running on the mobile terminal to be transferred to the 3G access network at least temporarily comprises such intermediate state, - wherein at least one secondary PDP context for an application running on the mobile terminal to be transferred to the 3G access network at least temporarily comprises such intermediate state,
A method for increasing network coverage for a Voice-over-Internet Protocol, VoIP, session between a first user equipment, UE, and a second UE, comprising: negotiating, between the first UE and the second UE, a codec configuration to use in the VoIP session between the first UE and the second UE; determining, at the first UE, maximum end-to-end packet loss rates, PLRs, that the first UE and the second UE can tolerate for received media based at least in part on the negotiated codec configuration; determining, at the first UE, a distribution of the maximum end-to-end PLRs among respective uplinks and downlinks at the first UE and the second UE; and transmitting, by the first UE to a serving base station, a message to request the serving base station to support an uplink PLR for media transmitted in a direction from the first UE to the second UE and a downlink PLR for media transmitted in a direction from the second UE to the first UE according to the determined distribution. negotiating, between the first UE and the second UE, a codec configuration to use in the VoIP session between the first UE and the second UE; determining, at the first UE, maximum end-to-end packet loss rates, PLRs, that the first UE and the second UE can tolerate for received media based at least in part on the negotiated codec configuration; determining, at the first UE, a distribution of the maximum end-to-end PLRs among respective uplinks and downlinks at the first UE and the second UE; and transmitting, by the first UE to a serving base station, a message to request the serving base station to support an uplink PLR for media transmitted in a direction from the first UE to the second UE and a downlink PLR for media transmitted in a direction from the second UE to the first UE according to the determined distribution.
A helical gear transmission for an electromechanical power-assisted steering mechanism, comprising a shaft which meshes with a helical gear, wherein the shaft is disposed in a transmission housing and at the first end of said shaft in a drive-side bearing assembly is mounted so as to be rotatable about a rotation axis, and at the second end of said shaft in a first bearing assembly is mounted in the transmission housing, wherein the first bearing assembly has a fixed bearing, characterized in that the fixed bearing is enclosed by two bearing shells, wherein on both end sides of the fixed bearing one spring element is in each case disposed between the fixed bearing and the respective bearing shell, and wherein the spring elements asymmetrically pre-load the fixed bearing in such a manner that a pivot axis about which the shaft is pivotable in the direction of the helical gear is disposed in the region of the toothing plane of the shaft and the helical gear.