mhurhangee/ep-ind-claims huggingface dataset:
A surgical system configured to remove a predetermined volume of material from a workpiece using a surgical instrument having an energy applicator extending therefrom, the surgical system comprising: a tool path generator module configured to generate a solid body model of the predetermined volume of material, and to generate a plurality of segments (256, 262, 266) defining a tool path for removing the predetermined volume of material from the workpiece, wherein the tool path is generated based on the solid body model; a manipulator controller configured to control the surgical instrument in either a manual mode of operation wherein the predetermined volume of material is removed by the energy applicator according to a cutting path taken by a practitioner, or in a semi-autonomous mode of operation wherein the predetermined volume of material is removed by the energy applicator autonomously according to the tool path; a material logger module configured to monitor movement of the energy applicator and to continuously update the solid body model by subtracting the segments (256, 262, 266) of the tool path removed by the cutting path of the energy applicator; characterized in that the tool path generator module modifies the tool path based on the updated solid body model such that the tool path in semi-autonomous mode traverses only areas wherein the predetermined volume of material remains. a tool path generator module configured to generate a solid body model of the predetermined volume of material, and to generate a plurality of segments (256, 262, 266) defining a tool path for removing the predetermined volume of material from the workpiece, wherein the tool path is generated based on the solid body model; a manipulator controller configured to control the surgical instrument in either a manual mode of operation wherein the predetermined volume of material is removed by the energy applicator according to a cutting path taken by a practitioner, or in a semi-autonomous mode of operation wherein the predetermined volume of material is removed by the energy applicator autonomously according to the tool path; a material logger module configured to monitor movement of the energy applicator and to continuously update the solid body model by subtracting the segments (256, 262, 266) of the tool path removed by the cutting path of the energy applicator; characterized in that the tool path generator module modifies the tool path based on the updated solid body model such that the tool path in semi-autonomous mode traverses only areas wherein the predetermined volume of material remains.
A polymerization and artificial post-aging apparatus for artificial aging, in particular for artificial post-aging of dental restoration parts made of polymerizable plastics, especially dental restoration parts produced by stereolithography, the apparatus comprising at least one light source which emits in the visible and/or ultraviolet wavelength ranges, and a light chamber which has at least one light source, and a door to the light chamber, wherein at least one wall, in particular the door, includes a window with a window pane which consists of at least two layers, the layer of which facing the light chamber reflects at least 90%, especially about 95%, characterized in that layer thereof facing away from the light chamber filters out UV light and/or blue light.
Microfluidic storage apparatus, having at least one hermetically closed storage chamber, formed by making a film (7, 8) or membrane bulge, for a fluid, an intended breaking point, formed by a welded or adhesively bonded region, for forming an opening in the storage chamber and having a transport section which leads from the storage chamber to an opening in the storage apparatus and is intended for the transport of fluid out of the storage apparatus when the storage chamber is compressed, wherein the inner volume of the transport section is zero when the storage chamber is hermetically closed, the transport section can be opened up to form a transport channel by a fluid flow leaving the storage chamber when the storage chamber is compressed, and wherein, when the storage chamber is hermetically closed, the transport section has channel walls which lie against one another and are each formed by a film (7, 8) or a film and a rigid plate, and at least one channel wall can be deformed by the fluid flow when the transport channel is opened up, characterized in that the welded or adhesively bonded region forming the intended breaking point separates the inner space of the storage chamber from the transport section and in that the films (7, 8), or the film and the rigid plate, lie against one another prior to the opening up of the transport channel in the region of the transport section without a connection. having at least one hermetically closed storage chamber, formed by making a film (7, 8) or membrane bulge, for a fluid, an intended breaking point, formed by a welded or adhesively bonded region, for forming an opening in the storage chamber and having a transport section which leads from the storage chamber to an opening in the storage apparatus and is intended for the transport of fluid out of the storage apparatus when the storage chamber is compressed, wherein the inner volume of the transport section is zero when the storage chamber is hermetically closed, the transport section can be opened up to form a transport channel by a fluid flow leaving the storage chamber when the storage chamber is compressed, and wherein, when the storage chamber is hermetically closed, the transport section has channel walls which lie against one another and are each formed by a film (7, 8) or a film and a rigid plate, and at least one channel wall can be deformed by the fluid flow when the transport channel is opened up, characterized in that the welded or adhesively bonded region forming the intended breaking point separates the inner space of the storage chamber from the transport section and in that the films (7, 8), or the film and the rigid plate, lie against one another prior to the opening up of the transport channel in the region of the transport section without a connection.
A pool cleaning robot, comprising: a filtering unit for filtering fluid that passes through the filtering unit; and a controller that is configured to at least assist in determining, based on the cleanliness related parameter of the filtering unit, a cleanliness of the filtering unit, wherein the pool cleaning robot is characterized by further comprising: a calorimetric sensor (61, 62, 69) for sensing a cleanliness related parameter of the filtering unit while the pool cleaning robot is submerged in the fluid, and wherein at least one of the following is true: (i) the pool cleaning robot comprises a turbulence generator that is arranged to introduce turbulences that contact the calorimetric sensor; (ii) the pool cleaning robot comprises flow limiters that are arranged to limit a flow of side flows over the calorimetric sensor; (iii) the calorimetric sensor consists essentially of a single thermal resistor. a filtering unit for filtering fluid that passes through the filtering unit; and a controller that is configured to at least assist in determining, based on the cleanliness related parameter of the filtering unit, a cleanliness of the filtering unit, wherein the pool cleaning robot is characterized by further comprising: a calorimetric sensor (61, 62, 69) for sensing a cleanliness related parameter of the filtering unit while the pool cleaning robot is submerged in the fluid, and wherein at least one of the following is true: (i) the pool cleaning robot comprises a turbulence generator that is arranged to introduce turbulences that contact the calorimetric sensor; (ii) the pool cleaning robot comprises flow limiters that are arranged to limit a flow of side flows over the calorimetric sensor; (iii) the calorimetric sensor consists essentially of a single thermal resistor. a calorimetric sensor (61, 62, 69) for sensing a cleanliness related parameter of the filtering unit while the pool cleaning robot is submerged in the fluid, and wherein at least one of the following is true: (i) the pool cleaning robot comprises a turbulence generator that is arranged to introduce turbulences that contact the calorimetric sensor; (ii) the pool cleaning robot comprises flow limiters that are arranged to limit a flow of side flows over the calorimetric sensor; (iii) the calorimetric sensor consists essentially of a single thermal resistor. (i) the pool cleaning robot comprises a turbulence generator that is arranged to introduce turbulences that contact the calorimetric sensor; (ii) the pool cleaning robot comprises flow limiters that are arranged to limit a flow of side flows over the calorimetric sensor; (iii) the calorimetric sensor consists essentially of a single thermal resistor.
A wobble motor comprising at least one solid state actuator each comprising a body extending primarily in a Z direction between opposite mount and tool ends (3, 4), the wobble motor further comprising a wobble structure comprising a shaft being rotatable about a longitudinal axis and at least one ring (23, 33) arranged about the shaft, where each ring is operatively associated with the tool end of the at least one actuator (18, 19, 20, 21, 32) such that the ring can be manipulated by movement of the tool end relative to the mount end, characterised in that the body forms a first section being offset from a second section in the Z direction, each section being capable of deflecting in a Y direction being perpendicular to the Z direction and in an X direction being perpendicular to the Y direction and perpendicular to the Z direction.
A measurement circuit that measures voltage or current of electrical energy generated by a generator, the measurement circuit comprising: a first circuit (445a,445c) configured to measure the voltage or current; a second circuit (445b,445d) configured to measure the voltage or current; a selecting circuit (446a,446b) configured to select the first circuit to provide the measured voltage or current; a determination circuit configured to determine whether the measured voltage or current reaches a predetermined value; and a range setting circuit configured to change a range setting of the second circuit from a first range setting to a second range setting when the determination circuit determines that the measured voltage or current reaches a predetermined value, wherein the selecting circuit is further configured to select the second circuit to provide the measured voltage or current when a first predetermined time elapses after the range setting circuit changes the range setting of the second circuit, and wherein the range setting circuit is further configured to change a range setting of the first circuit from the first range setting to the second range setting after the selecting circuit selects the second circuit. a first circuit (445a,445c) configured to measure the voltage or current; a second circuit (445b,445d) configured to measure the voltage or current; a selecting circuit (446a,446b) configured to select the first circuit to provide the measured voltage or current; a determination circuit configured to determine whether the measured voltage or current reaches a predetermined value; and a range setting circuit configured to change a range setting of the second circuit from a first range setting to a second range setting when the determination circuit determines that the measured voltage or current reaches a predetermined value, wherein the selecting circuit is further configured to select the second circuit to provide the measured voltage or current when a first predetermined time elapses after the range setting circuit changes the range setting of the second circuit, and wherein the range setting circuit is further configured to change a range setting of the first circuit from the first range setting to the second range setting after the selecting circuit selects the second circuit.
Yoke assembly for a magnetic switching device such as a relay, having two pole faces (20, 21, 22) and comprising a first element and a second element, wherein the first and second elements (11, 12) together form at least one of the pole faces, wherein the first element comprises a first section that extends parallel to a first section of the second element in a mounted state, and a second section, wherein the second section forms part of the at least one pole face and extends in a direction perpendicular to the first section of the first element, and wherein the at least one pole face comprises a protrusion, which is configured to be contacted by an armature, the protrusion being formed by the second element and projecting beyond the second section of the first element.
A method of determining the location of a substantially horizontal fluid interface within a vessel, comprising (i) providing at least one generally linear source array comprising a plurality of sources of penetrating radiation and (ii) providing at least one generally linear detector array comprising a plurality of radiation detectors capable of detecting radiation emitted by the sources, said source and detector arrays being located such that radiation emitted from each of the sources is capable of following a linear path from the source, through the vessel and material to at least a respective one of the detectors, (iii) comparing the amount of radiation received by at least two of the detectors from a respective source to provide an indication of the relative density of the material through which radiation has passed to the detectors, the method being characterised in that the linear axis of the source and detector array is oriented with respect to the horizontal interface such that the linear axis intersects the plane of the interface at an angle between 10 degrees and 80 degrees. (i) providing at least one generally linear source array comprising a plurality of sources of penetrating radiation and (ii) providing at least one generally linear detector array comprising a plurality of radiation detectors capable of detecting radiation emitted by the sources, said source and detector arrays being located such that radiation emitted from each of the sources is capable of following a linear path from the source, through the vessel and material to at least a respective one of the detectors, (iii) comparing the amount of radiation received by at least two of the detectors from a respective source to provide an indication of the relative density of the material through which radiation has passed to the detectors, the method being characterised in that the linear axis of the source and detector array is oriented with respect to the horizontal interface such that the linear axis intersects the plane of the interface at an angle between 10 degrees and 80 degrees.
An antenna device, comprising equipment with lead wires, an antenna matching network, a Low Noise Amplifier LNA, and a Frequency Modulation FM chip, wherein the equipment with lead wires is configured to be reused as a receiving antenna to receive FM signals; the antenna matching network is configured to debug a receiving performance of the receiving antenna; the LNA is configured to increase a signal-to-noise ratio of the FM signals; and the FM chip is configured to demodulate the FM signals received by the equipment with lead wires and transmit audio signals obtained after demodulating to a speaker; characterized in that the LNA performs blocking processing on the FM signals by utilizing a capacitor of an LNA circuit and amplifies the FM signals which have been subjected to the blocking processing performed by the capacitor by a triode of the LNA circuit; and the LNA performs blocking processing on the FM signals amplified by the triode by utilizing the capacitor of the LNA circuit and then transmits the FM signals to the FM chip.
Method for transporting preforms to a device for blow moulding containers as well as for generating a dynamic pressure of the preforms in the entrance area of this device for blow moulding containers, in which the preforms are stretched by a stretching rod after a thermal conditioning inside at least one blow mould and are shaped into containers by means of the impact of blowing pressure, characterised in that the preforms are transported substantially in a horizontal direction along a transport path between a sorting device for the preforms and a housing of the blowing machine and thus upstream of a heating path, wherein the feed force for the transport of the preforms and thus the back pressure is generated by means of a compressed air flow.
A method performed by a wireless device, the method comprising: obtaining an indication of an initial resource region, the initial resource region comprising time frequency resources, wherein the time frequency resources are divided into a plurality of scheduling occasions, SOs, and each of the plurality of SOs is associated with an uplink beam; determining the wireless device has moved out of coverage of a first beam and that uplink resources associated with the first beam should no longer be used; selecting a second beam for uplink transmission; selecting a SO associated with the second beam from the initial resource region; and transmitting an initial transmission of uplink data in the selected SO using the second beam, wherein the uplink data includes at least one of a hybrid automatic repeat request, HARQ, process identifier, redundancy value, modulation and coding scheme, MCS, information, Buffer Status Report, BSR, and a Scheduling Request, SR. obtaining an indication of an initial resource region, the initial resource region comprising time frequency resources, wherein the time frequency resources are divided into a plurality of scheduling occasions, SOs, and each of the plurality of SOs is associated with an uplink beam; determining the wireless device has moved out of coverage of a first beam and that uplink resources associated with the first beam should no longer be used; selecting a second beam for uplink transmission; selecting a SO associated with the second beam from the initial resource region; and transmitting an initial transmission of uplink data in the selected SO using the second beam, wherein the uplink data includes at least one of a hybrid automatic repeat request, HARQ, process identifier, redundancy value, modulation and coding scheme, MCS, information, Buffer Status Report, BSR, and a Scheduling Request, SR.
A mobile cleaning robot comprising: a cleaning head configured to clean a floor surface in an environment; at least one camera having a field of view that extends above the floor surface, in which the at least one camera is configured to capture images that include portions of the environment above the floor surface; a recognition module configured to recognize objects in the environment based on the images captured by the at least one camera, in which the recognition module is trained at least in part using the images captured by the at least one camera; a storage device configured to store a map of the environment; and a control module configured to control the mobile cleaning robot to navigate in the environment using the map and operate the cleaning head to perform cleaning tasks taking into account of the objects recognized by the recognition module, wherein the control module is configured to execute particular cleaning modes in response to the recognition module recognizing particular objects, in which the cleaning modes comprise at least one of a deep cleaning mode or a no-touch cleaning mode, characterized in that the control module is configured to execute one of the particular cleaning modes in a vicinity of at least one of the recognized particular objects, the particular objects including furniture and/or appliances. a cleaning head configured to clean a floor surface in an environment; at least one camera having a field of view that extends above the floor surface, in which the at least one camera is configured to capture images that include portions of the environment above the floor surface; a recognition module configured to recognize objects in the environment based on the images captured by the at least one camera, in which the recognition module is trained at least in part using the images captured by the at least one camera; a storage device configured to store a map of the environment; and a control module configured to control the mobile cleaning robot to navigate in the environment using the map and operate the cleaning head to perform cleaning tasks taking into account of the objects recognized by the recognition module, wherein the control module is configured to execute particular cleaning modes in response to the recognition module recognizing particular objects, in which the cleaning modes comprise at least one of a deep cleaning mode or a no-touch cleaning mode, characterized in that the control module is configured to execute one of the particular cleaning modes in a vicinity of at least one of the recognized particular objects, the particular objects including furniture and/or appliances.
A process for producing ethanol, whereby the process comprises the step of fermenting a medium with a yeast cell, whereby the medium contains or is fed with: a) a source of at least one of a hexose and a pentose; b) a source of acetic acid; and, c) a source of glycerol, whereby the yeast cell ferments acetic acid, glycerol and at least one of the hexose and pentose to ethanol, and optionally, recovery of the ethanol, whereby the yeast cell comprises an exogenous gene coding for an enzyme with acetaldehyde dehydrogenase activity, which gene confers to the cell the ability to convert acetic acid into ethanol, and whereby the yeast cell comprises a bacterial gene coding for an enzyme with NAD + -linked glycerol dehydrogenase activity, and wherein the yeast cell comprises a genetic modification that increases the specific activity of dihydroxyacetone kinase, wherein the yeast cell is not a yeast cell comprising a genetic modification that reduces specific NAD + -dependent formate dehydrogenase activity in the cell, wherein increase or reduction of a specific activity of a particular enzyme is an increase or decrease as compared to the specific activity of that enzyme in an otherwise identical wild type yeast cell. a) a source of at least one of a hexose and a pentose; b) a source of acetic acid; and, c) a source of glycerol,
An antifungal agent comprising as an active ingredient a compound selected from the group consisting of ravuconazole, a prodrug ether of ravuconazole, a prodrug ester of ravuconazole, and pharmaceutically acceptable salts, hydrates, and solvates thereof, wherein the prodrug ester is selected from the group consisting of esters and carbonates formed by reacting a hydroxyl of the ravuconazole with any of an alkyl, an alkoxy, or an aryl-substituted acylating agent or a phosphorylating agent, and wherein the prodrug ether is selected from the group consisting of phosphate acetals and O-glucosides of ravuconazole, for use in treating an animal suffering from cryptococcosis, wherein the cryptococcosis is a cryptococcosis caused by cryptococcus that is resistant to at least two triazole-based antifungal agents selected from the group consisting of fluconazole, itraconazole and voriconazole. wherein the prodrug ester is selected from the group consisting of esters and carbonates formed by reacting a hydroxyl of the ravuconazole with any of an alkyl, an alkoxy, or an aryl-substituted acylating agent or a phosphorylating agent, and wherein the prodrug ether is selected from the group consisting of phosphate acetals and O-glucosides of ravuconazole, for use in treating an animal suffering from cryptococcosis, wherein the cryptococcosis is a cryptococcosis caused by cryptococcus that is resistant to at least two triazole-based antifungal agents selected from the group consisting of fluconazole, itraconazole and voriconazole.