mhurhangee/ep-ind-claims huggingface dataset:
A syringe gasket production method comprising the steps of: preparing a syringe gasket including a cylindrical main body made of an elastic material and an inert resin film laminated on a surface of the main body, by molding a gasket laminated with an inert resin film in a prepared mold, whereby the inner surface of the inert resin film is roughened so that the rubber can firmly adhere to the inert resin film by the vulcanization molding; and forming at least two minute projections extending circumferentially of the gasket on a surface of the inert resin film laminated on the main body by thermal processing using a laser beam, whereby the projections are formed by applying heat to a surface layer of the gasket to evaporate or decompose a surface portion of the inert resin film and redeposit a part of the evaporated material to form the projections, characterized in that the projections enclose an inter-projection groove, whereby a width of the inter-projection groove is between 135 μm and 180 μm. preparing a syringe gasket including a cylindrical main body made of an elastic material and an inert resin film laminated on a surface of the main body, by molding a gasket laminated with an inert resin film in a prepared mold, whereby the inner surface of the inert resin film is roughened so that the rubber can firmly adhere to the inert resin film by the vulcanization molding; and forming at least two minute projections extending circumferentially of the gasket on a surface of the inert resin film laminated on the main body by thermal processing using a laser beam, whereby the projections are formed by applying heat to a surface layer of the gasket to evaporate or decompose a surface portion of the inert resin film and redeposit a part of the evaporated material to form the projections, characterized in that the projections enclose an inter-projection groove, whereby a width of the inter-projection groove is between 135 μm and 180 μm.
A system for monitoring wafer handling of an assembled wafer handling machine with a robotic arm capable of picking up and moving wafers, the system comprising: a sensor capable of being secured to the assembled wafer handling machine; and a controller in electronic communication with the sensor and including control logic to: store a reference output of the sensor when the wafer handling machine is aligned; and generate an indication signal when a difference between the reference output and a current output of the sensor exceeds a threshold, wherein the system is modular in nature and characterized in that the controller is independent of an automation control module used to control movement of the robotic arm, and in that the sensor comprises at least one tilt sensor capable of being secured to the assembled wafer handling machine. a sensor capable of being secured to the assembled wafer handling machine; and a controller in electronic communication with the sensor and including control logic to: store a reference output of the sensor when the wafer handling machine is aligned; and generate an indication signal when a difference between the reference output and a current output of the sensor exceeds a threshold, store a reference output of the sensor when the wafer handling machine is aligned; and generate an indication signal when a difference between the reference output and a current output of the sensor exceeds a threshold, wherein the system is modular in nature and characterized in that the controller is independent of an automation control module used to control movement of the robotic arm, and in that the sensor comprises at least one tilt sensor capable of being secured to the assembled wafer handling machine.
Method for producing container shells, wherein rounded shells (3 - 6) are transported from a transport installation to a roll seam welding machine (10 - 15) and the shells pass through a calibration tool with a plurality of calibration rollers arranged in a wreath-like way before the welding rollers (10, 11) of the roll seam welding machine, wherein a measurement of the force exerted by the respective shell on multiple calibration rollers of the calibration tool is performed, wherein the measured force is evaluated as information for the overlapping width of the shell, characterized in that the calibration tool comprises two parts (18, 18'), each of which carries calibration rollers, and wherein the force exerted by the respective shell on the two parts is measured, wherein a yoke connecting the two parts is provided and the deformation of the yoke is measured and used as measured force.
A mixed saccharide granule comprising; (a) a first saccharide powder containing psicose; and (b) a second saccharide powder which has 30 to 170 of a ratio of an average particle diameter, based on 100 of an average particle diameter of the first saccharide powder, and is at least one selected from the group consisting of monosaccharides other than psicose and disaccharides, wherein hygroscopicity of the mixed saccharide granule is 90 or less, based on 100 of hygroscopicity of psicose powder. (a) a first saccharide powder containing psicose; and (b) a second saccharide powder which has 30 to 170 of a ratio of an average particle diameter, based on 100 of an average particle diameter of the first saccharide powder, and is at least one selected from the group consisting of monosaccharides other than psicose and disaccharides, wherein hygroscopicity of the mixed saccharide granule is 90 or less, based on 100 of hygroscopicity of psicose powder.
A speed changing control system for a vehicle including a speed changing device for speed changing a rotational power from an engine and outputting the resultant speed-changed power, the system comprising: a speed changing control unit for setting a speed change ratio of the speed changing device; an engine control unit for setting an engine rotational speed of the engine; an operational instrument for delivering an operational instruction in response to a driver's operation; and a speed changing module, wherein based on said operational instruction, said speed changing module is configured to provide said engine control unit with a rotational speed reducing instruction for reducing an engine rotational speed set by said engine control unit by a predetermined amount; characterized in that said speed changing module is configured to request, to said speed changing control unit, a change of the speed change ratio for compensating for said reduction in the engine rotational speed by said rotational speed reducing instruction so as to maintain the vehicle speed; and that said operational instrument (30; 32) is configured to be capable of delivering also a reverting operational instruction for canceling the reduction in the engine rotational speed and the associated compensatory change in the speed change ratio. a speed changing control unit for setting a speed change ratio of the speed changing device; an engine control unit for setting an engine rotational speed of the engine; an operational instrument for delivering an operational instruction in response to a driver's operation; and a speed changing module, wherein based on said operational instruction, said speed changing module is configured to provide said engine control unit with a rotational speed reducing instruction for reducing an engine rotational speed set by said engine control unit by a predetermined amount;
Circular cross-cut saw, in particular a miter saw, having a supporting table and having a sawing device, wherein the sawing device is arranged so as to be pivotable about a cross-cutting axis, wherein the sawing device has a saw blade and a displaceable swing guard and a pivoting mechanism is provided, wherein during a cross-cutting movement of the sawing device a rotating and/or pivoting movement of the swing guard is realizable via the pivoting mechanism in such a manner that the swing guard can be opened at least in part by pivoting down the sawing device and can be closed by pivoting up the sawing device, wherein, in the lower part of the cross-cutting movement, the swing guard can be opened, in particular fully, preferably by hand or by pressing against or by contact with a workpiece to be cut, which is supported on the supporting table characterized in that the pivoting mechanism has a locking element, wherein the pivoting mechanism and the locking element are arranged and/or realized in such a manner that in the upper position of the sawing device the swing guard, then closed, is locked such that an unintended opening of the swing guard without separately actuating the locking element is prevented, and in that automatic unlocking of the swing guard is realized by the pivoting mechanism with the cross-cutting movement, so that, from a certain cross-cutting pivot point, the locking element has no further locking action.
A nutritionally balanced composite meal for infants/small children, comprising at least one carbohydrate containing meal component and at least one protein containing meal component, characterized in that said at least one carbohydrate containing meal component and said at least one protein containing meal component have been separately heat-treated under optimized conditions such that; a) starch in said carbohydrate containing meal component is fully gelatinized and enzyme inhibitors are sufficiently inactivated to not being able to reduce protein digestion and absorption, or otherwise introduce damage to the intestinal tract, b) Carboxymethyl-lysine levels are kept lower than 72 mg/kg protein, preferably from 25 to 65 mg/kg protein as measured using ELISA methodology, c) the product of Glycaemic Index (White wheat bread reference) and Insulinaemic index (White wheat bread reference), (GI x II), does not exceed 10000, preferably remains below 8000, most desirable below 4000, and d) II is not more than 100% above the GI, preferably below 60%, most desirable below 50%, wherein said at least one carbohydrate containing meal component and said at least one protein containing meal component are separately packed. a) starch in said carbohydrate containing meal component is fully gelatinized and enzyme inhibitors are sufficiently inactivated to not being able to reduce protein digestion and absorption, or otherwise introduce damage to the intestinal tract, b) Carboxymethyl-lysine levels are kept lower than 72 mg/kg protein, preferably from 25 to 65 mg/kg protein as measured using ELISA methodology, c) the product of Glycaemic Index (White wheat bread reference) and Insulinaemic index (White wheat bread reference), (GI x II), does not exceed 10000, preferably remains below 8000, most desirable below 4000, and d) II is not more than 100% above the GI, preferably below 60%, most desirable below 50%,
A method of user interface operation, comprising: storing a correspondence between operative instructions and pressure parameters, wherein the pressure parameters include a pressure value and duration; obtaining and displaying the pressure value and the duration applied on the mobile terminal; finding and calling an operative instruction according to the pressure value, the duration and the correspondence between pressure parameters and operative instructions; performing the operative instruction; characterized by further comprising: determining a gender and age of a user of the mobile terminal by face recognition, finger-print recognition or voice recognition, and the step of finding and calling an operative instruction according to the pressure value, the duration and the correspondence between pressure parameters and operative instructions comprising: finding and calling an operative instruction according to the pressure value, the duration, the gender and age of the user, and the correspondence between pressure parameters and operative instructions. storing a correspondence between operative instructions and pressure parameters, wherein the pressure parameters include a pressure value and duration; obtaining and displaying the pressure value and the duration applied on the mobile terminal; finding and calling an operative instruction according to the pressure value, the duration and the correspondence between pressure parameters and operative instructions; performing the operative instruction; characterized by further comprising: determining a gender and age of a user of the mobile terminal by face recognition, finger-print recognition or voice recognition, and the step of finding and calling an operative instruction according to the pressure value, the duration and the correspondence between pressure parameters and operative instructions comprising: finding and calling an operative instruction according to the pressure value, the duration, the gender and age of the user, and the correspondence between pressure parameters and operative instructions. determining a gender and age of a user of the mobile terminal by face recognition, finger-print recognition or voice recognition, and the step of finding and calling an operative instruction according to the pressure value, the duration and the correspondence between pressure parameters and operative instructions comprising: finding and calling an operative instruction according to the pressure value, the duration, the gender and age of the user, and the correspondence between pressure parameters and operative instructions.
A clipping system for treating tissue, comprising: a clip including a pair of clip arms, each of the clip arms extending from a proximal end to a distal end, proximal ends of the clip arms slidably received within a channel of a capsule to be moved between an open configuration and a closed configuration, a proximal end of the capsule including a pair of openings extending through a wall thereof; and a coupler mounted over the proximal end of the capsule via a pair of deployment arms including engaging features extending laterally inward from an interior surface thereof to engage the pair of openings of the capsule, the coupler including retention arms, configured to engage a corresponding portion of an applicator, characterized in that the deployment arms are configured so that, when the coupler is drawn proximally against the applicator with a pre-determined force, the deployment arms slide proximally past the corresponding portion of the applicator to deflect the deployment arms out of engagement with the capsule so that the coupler is separable from the capsule. a clip including a pair of clip arms, each of the clip arms extending from a proximal end to a distal end, proximal ends of the clip arms slidably received within a channel of a capsule to be moved between an open configuration and a closed configuration, a proximal end of the capsule including a pair of openings extending through a wall thereof; and a coupler mounted over the proximal end of the capsule via a pair of deployment arms including engaging features extending laterally inward from an interior surface thereof to engage the pair of openings of the capsule, the coupler including retention arms, configured to engage a corresponding portion of an applicator, characterized in that the deployment arms are configured so that, when the coupler is drawn proximally against the applicator with a pre-determined force, the deployment arms slide proximally past the corresponding portion of the applicator to deflect the deployment arms out of engagement with the capsule so that the coupler is separable from the capsule.
A method comprising: displaying medical scan information comprising a plurality of planes on an external display that is external to an augmented reality, AR, head mounted device, HMD,; displaying at least one plane (202, 204, 206) of medical scan information (115, 220) on a display of said augmented reality head-mounted device based on the medical scan information displayed on the external display; and monitoring a location of a focus of a user's gaze when said user is wearing said head mounted device; characterized by: updating the medical scan information on the external display based on monitored movement of the location of the focus of the user's gaze; detecting that the user's gaze is focused on one of the at least one plane of medical scan information displayed on the display of the AR HMD; and in response to detecting that the user's gaze is focused on one of the at least one plane of medical scan information displayed on the display of the AR HMD, highlighting the focused-on plane of medical scan information to indicate that the focused-on plane of medical scan information has been selected and displaying control objects associated with the highlighted plane of medical scan information; wherein highlighting the focused-on plane of medical scan information includes changing a fill color, a fill pattern, a border color, or a border style of the focused-on plane of medical scan information. displaying medical scan information comprising a plurality of planes on an external display that is external to an augmented reality, AR, head mounted device, HMD,; displaying at least one plane (202, 204, 206) of medical scan information (115, 220) on a display of said augmented reality head-mounted device based on the medical scan information displayed on the external display; and monitoring a location of a focus of a user's gaze when said user is wearing said head mounted device; updating the medical scan information on the external display based on monitored movement of the location of the focus of the user's gaze; detecting that the user's gaze is focused on one of the at least one plane of medical scan information displayed on the display of the AR HMD; and in response to detecting that the user's gaze is focused on one of the at least one plane of medical scan information displayed on the display of the AR HMD, highlighting the focused-on plane of medical scan information to indicate that the focused-on plane of medical scan information has been selected and displaying control objects associated with the highlighted plane of medical scan information; wherein highlighting the focused-on plane of medical scan information includes changing a fill color, a fill pattern, a border color, or a border style of the focused-on plane of medical scan information.
A method comprising: generating differential gene expression level information for an input set of genes including at least CDKN2B, ATL2, CTGF, INHBA, ID4, BMPR1A, CD1E, TFDP1, AMIGO2, and DDIT4, the differential gene expression level information comparing: (i) baseline gene expression level information from a baseline sample of a breast tumor of a patient acquired before initiating a breast cancer therapy regimen to the patient and (ii) response gene expression level information from a response sample of the breast tumor acquired after initiating the breast cancer therapy regimen by administering a first dose of bevacizumab to the patient; and computing a pathological complete response (pCR) prediction for the patient based on the differential gene expression level information for the input set of genes; wherein the generating and computing are performed by an electronic data processing device. generating differential gene expression level information for an input set of genes including at least CDKN2B, ATL2, CTGF, INHBA, ID4, BMPR1A, CD1E, TFDP1, AMIGO2, and DDIT4, the differential gene expression level information comparing: (i) baseline gene expression level information from a baseline sample of a breast tumor of a patient acquired before initiating a breast cancer therapy regimen to the patient and (ii) response gene expression level information from a response sample of the breast tumor acquired after initiating the breast cancer therapy regimen by administering a first dose of bevacizumab to the patient; and computing a pathological complete response (pCR) prediction for the patient based on the differential gene expression level information for the input set of genes; (i) baseline gene expression level information from a baseline sample of a breast tumor of a patient acquired before initiating a breast cancer therapy regimen to the patient and (ii) response gene expression level information from a response sample of the breast tumor acquired after initiating the breast cancer therapy regimen by administering a first dose of bevacizumab to the patient; and computing a pathological complete response (pCR) prediction for the patient based on the differential gene expression level information for the input set of genes; wherein the generating and computing are performed by an electronic data processing device.
A method for updating a port index in a multi-device system which is a stacking system, comprising: detecting whether a device ID of a device is changed in the multi-device system, wherein the detecting is performed by comparing device IDs of each device in the multi-device system before and after the detection; characterized by: for a device whose device ID is changed in the system, updating a port index of the device according to a device ID after the change, wherein the port index is used to acquire configuration data of a port of the device, and the port index comprises a first index and a second index, the first index comprises a device ID and a corresponding bridge Media Access Control, MAC, address, and the second index comprises the bridge MAC address and a port number of the port of the device. detecting whether a device ID of a device is changed in the multi-device system, wherein the detecting is performed by comparing device IDs of each device in the multi-device system before and after the detection; characterized by: for a device whose device ID is changed in the system, updating a port index of the device according to a device ID after the change, wherein the port index is used to acquire configuration data of a port of the device, and the port index comprises a first index and a second index, the first index comprises a device ID and a corresponding bridge Media Access Control, MAC, address, and the second index comprises the bridge MAC address and a port number of the port of the device. for a device whose device ID is changed in the system, updating a port index of the device according to a device ID after the change, wherein the port index is used to acquire configuration data of a port of the device, and the port index comprises a first index and a second index, the first index comprises a device ID and a corresponding bridge Media Access Control, MAC, address, and the second index comprises the bridge MAC address and a port number of the port of the device.