mhurhangee/patent-ind-claim-en huggingface dataset:
A method for calibrating a vacuum sensor of a phacoemulsification system at an elevation, comprising: supplying a vacuum sensor to be calibrated; running the vacuum sensor to be calibrated at the elevation; determining a maximum vacuum pressure that the phacoemulsification system is able to achieve from running the vacuum sensor at the elevation; determining a range of vacuum pressure that the phacoemulsification system is able to achieve from running the vacuum sensor at the elevation; calibrating the vacuum sensor based at least in part on the maximum vacuum pressure available and the range of vacuum pressure available, characterised in that the method further comprises generating a plurality of known pressures at multiple calibration points within a known operating range, wherein the known operating range is divided into a low range, a middle range, and a high range, wherein the middle range comprises intervals between the number of known pressures that are smaller than the intervals between the number of known pressures within the low range and the high range; and supplying the plurality of known pressures to the vacuum sensor to be calibrated to produce a plurality of measured pressure readings and the known pressures, wherein calibrating the vacuum sensor is also based on a mathematical relationship between the measured pressure readings and the known pressures. supplying a vacuum sensor to be calibrated; running the vacuum sensor to be calibrated at the elevation; determining a maximum vacuum pressure that the phacoemulsification system is able to achieve from running the vacuum sensor at the elevation; determining a range of vacuum pressure that the phacoemulsification system is able to achieve from running the vacuum sensor at the elevation; calibrating the vacuum sensor based at least in part on the maximum vacuum pressure available and the range of vacuum pressure available, characterised in that the method further comprises generating a plurality of known pressures at multiple calibration points within a known operating range, wherein the known operating range is divided into a low range, a middle range, and a high range, wherein the middle range comprises intervals between the number of known pressures that are smaller than the intervals between the number of known pressures within the low range and the high range; and supplying the plurality of known pressures to the vacuum sensor to be calibrated to produce a plurality of measured pressure readings and the known pressures, wherein calibrating the vacuum sensor is also based on a mathematical relationship between the measured pressure readings and the known pressures.
An electric generating element comprising: a pressing member ; a first electrode ; an intermediate layer ; and a second electrode , the first electrode , the intermediate layer , and the second electrode being disposed in this order, and the intermediate layer being in contact with at least one of the first electrode and the second electrode , wherein the intermediate layer microscopically moves in a horizontal direction relative to a surface of the first electrode and a surface of the second electrode , when the intermediate layer is pressed in a vertical direction relative to the surface of the first electrode and the surface of the second electrode in a state that the intermediate layer is not secured with at least one of the first electrode and the second electrode , characterized in that the pressing member is disposed at a side opposite to a surface of the first electrode facing the intermediate layer . a pressing member ; a first electrode ; an intermediate layer ; and a second electrode , the first electrode , the intermediate layer , and the second electrode being disposed in this order, and the intermediate layer being in contact with at least one of the first electrode and the second electrode , wherein the intermediate layer microscopically moves in a horizontal direction relative to a surface of the first electrode and a surface of the second electrode , when the intermediate layer is pressed in a vertical direction relative to the surface of the first electrode and the surface of the second electrode in a state that the intermediate layer is not secured with at least one of the first electrode and the second electrode , characterized in that the pressing member is disposed at a side opposite to a surface of the first electrode facing the intermediate layer .
The use of a coating agent composition comprising at least one binder component A and at least one curing component B, the binder component A comprising A1 at least one polyol component comprising at least one poly(oxyalkylene) glycol, A2 at least one aromatic diamine, A3 silicone elastomer particles, and A4 at least one polyurethane urea, and the curing component B comprising B1 at least one urethane group-containing component comprising nonblocked isocyanate groups and B2 at least one aromatic diisocyanate from methylenedi(phenyl isocyanate), the curing component B having an amount of nonblocked isocyanate groups of 10 to 30 wt%, and the solids content of the coating agent composition being greater than 95 wt%, for lining containers. A1 at least one polyol component comprising at least one poly(oxyalkylene) glycol, A2 at least one aromatic diamine, A3 silicone elastomer particles, and A4 at least one polyurethane urea, B1 at least one urethane group-containing component comprising nonblocked isocyanate groups and B2 at least one aromatic diisocyanate from methylenedi(phenyl isocyanate), the curing component B having an amount of nonblocked isocyanate groups of 10 to 30 wt%,
A relaying system for transmitting an Internet Protocol (IP) address of a client to a server by using a predetermined encapsulation protocol, the relaying system comprising: a first proxy configured to receive an original packet including the IP address of the client in a header of the original packet from the client and generate a reconstructed packet by adding a new header to the original packet, the reconstructed packet having a type of an encapsulation packet using the predetermined encapsulation protocol, wherein the new header includes a source address as a first proxy IP address and a destination address as a server IP address; and a bridge router configured to receive the reconstructed packet, extract the original packet from the reconstructed packet, and transmit the extracted original packet including the IP address of the client to the server, wherein the original packet has a source address as a client IP address, a destination address as a first proxy IP address, and the packet received by the server from the bridge router has a source address as the client IP address, a destination address as a server IP address, wherein the destination address of the extracted original packet has been changed to the server IP address by the first proxy or is changed to the server IP address by the bridge router after being extracting from the reconstructed packet, and wherein the reconstructed packet is transmitted to the bridge router along a route preset by the first proxy, regardless of the destination address of the reconstructed packet. a first proxy configured to receive an original packet including the IP address of the client in a header of the original packet from the client and generate a reconstructed packet by adding a new header to the original packet, the reconstructed packet having a type of an encapsulation packet using the predetermined encapsulation protocol, wherein the new header includes a source address as a first proxy IP address and a destination address as a server IP address; and a bridge router configured to receive the reconstructed packet, extract the original packet from the reconstructed packet, and transmit the extracted original packet including the IP address of the client to the server, wherein the original packet has a source address as a client IP address, a destination address as a first proxy IP address, and the packet received by the server from the bridge router has a source address as the client IP address, a destination address as a server IP address, wherein the destination address of the extracted original packet has been changed to the server IP address by the first proxy or is changed to the server IP address by the bridge router after being extracting from the reconstructed packet, and wherein the reconstructed packet is transmitted to the bridge router along a route preset by the first proxy, regardless of the destination address of the reconstructed packet.
Change-over device , in particular for non-destructive testing of a component, preferably a fibre-plastics composite component, comprising: - a change-over coupling for connecting a handling element , in particular a robot arm, to a change-over adapter , and - the change-over adapter , which is detachably connected to the change-over coupling , the change-over coupling comprising: - a clamping element for clamping with a corresponding clamping element on the change-over adapter , - at least one electrical and/or optical plug-in connection element for connecting to at least one corresponding electrical and/or optical plug-in connection element on the change-over adapter , - the change-over coupling comprising two water coupling elements for connecting to two corresponding water coupling elements on the change-over adapter , - characterised in that the water coupling elements project further in the direction of the connection to the change-over adapter than the electrical and/or optical plug-in connection element, such that the electrical and/or optical plug-in connection element and the corresponding electrical and/or optical plug-in connection element on the change-over adapter are aligned with one another before they meet, as a result of the connection of the water coupling elements to the corresponding water coupling elements on the change-over adapter . - a change-over coupling for connecting a handling element , in particular a robot arm, to a change-over adapter , and - the change-over adapter , which is detachably connected to the change-over coupling , the change-over coupling comprising: - a clamping element for clamping with a corresponding clamping element on the change-over adapter , - at least one electrical and/or optical plug-in connection element for connecting to at least one corresponding electrical and/or optical plug-in connection element on the change-over adapter , - the change-over coupling comprising two water coupling elements for connecting to two corresponding water coupling elements on the change-over adapter , - characterised in that the water coupling elements project further in the direction of the connection to the change-over adapter than the electrical and/or optical plug-in connection element, such that the electrical and/or optical plug-in connection element and the corresponding electrical and/or optical plug-in connection element on the change-over adapter are aligned with one another before they meet, as a result of the connection of the water coupling elements to the corresponding water coupling elements on the change-over adapter .
A signal distribution assembly configured to conduct signals in a semiconductor device module, the signal distribution assembly comprising: a first metal layer , the first metal layer having: a first side, the first side being planar; and a second side opposite the first side, the second side being non-planar and including: a base portion ; a first post extending from the base portion ; and a second post extending from the base portion ; and a thermally conductive insulator layer , a first surface of the thermally conductive insulator layer being coupled with the first side of the first metal layer ; and a second metal layer coupled with a second surface of the thermally conductive insulator layer opposite the first surface of the thermally conductive insulator layer , characterized in that the signal distribution assembly is pre-molded and comprises a molding compound disposed on the second side of the first metal layer , an upper surface of the first post and an upper surface of the second post being exposed through the molding compound. a first metal layer , the first metal layer having: a first side, the first side being planar; and a second side opposite the first side, the second side being non-planar and including: a base portion ; a first post extending from the base portion ; and a second post extending from the base portion ; and a first side, the first side being planar; and a second side opposite the first side, the second side being non-planar and including: a base portion ; a first post extending from the base portion ; and a second post extending from the base portion ; and a base portion ; a first post extending from the base portion ; and a second post extending from the base portion ; and a thermally conductive insulator layer , a first surface of the thermally conductive insulator layer being coupled with the first side of the first metal layer ; and a second metal layer coupled with a second surface of the thermally conductive insulator layer opposite the first surface of the thermally conductive insulator layer , characterized in that the signal distribution assembly is pre-molded and comprises a molding compound disposed on the second side of the first metal layer , an upper surface of the first post and an upper surface of the second post being exposed through the molding compound.
An eye-mountable device comprising: a lens comprising a polymeric material, the lens operable to be removably mounted over an eye and to be compatible with a motion of an eyelid when a concave surface of the lens is so mounted; an eyelid sensor coupled to the lens and operable to provide output data indicative of whether an eyelid of an eye on which the lens is mounted is closed; a display operable to display a light signal in response to the output data from the sensor that the eyelid is closed; and a feedback sensor configured to sense a movement of the eye to allow a wearer of the eye-mountable device to provide feedback to the eye-mountable device; characterised in that the eye-mountable device is configured to cause the display to display the light signal again if the feedback from the feedback sensor indicates the wearer did not receive the previously displayed light signal. a lens comprising a polymeric material, the lens operable to be removably mounted over an eye and to be compatible with a motion of an eyelid when a concave surface of the lens is so mounted; an eyelid sensor coupled to the lens and operable to provide output data indicative of whether an eyelid of an eye on which the lens is mounted is closed; a display operable to display a light signal in response to the output data from the sensor that the eyelid is closed; and a feedback sensor configured to sense a movement of the eye to allow a wearer of the eye-mountable device to provide feedback to the eye-mountable device; characterised in that the eye-mountable device is configured to cause the display to display the light signal again if the feedback from the feedback sensor indicates the wearer did not receive the previously displayed light signal.
An apparatus for controlling a supply of breathable gas at a positive pressure for treatment of a respiratory disorder, the apparatus comprising: a controller , including at least one processor, adapted to control setting of a blower of a therapy apparatus for controlling a supply of breathable gas at a controlled pressure above ambient in a patient interface , the controller coupled with at least one sensor for the therapy apparatus, the at least one sensor configured to measure pressure through a conduit from the therapy apparatus to the patient interface , the conduit in fluid communication with the patient interface , the patient interface configured to deliver the supply of breathable gas to an airway of a patient, the controller being further configured to determine gas pressure in the patient interface in presence of cyclical expiratory blocking and inspiratory unblocking of the conduit to the sensor , the determination of the gas pressure in the patient interface including a first unblocked-conduit process (4412-B) and a second blocked-conduit process (4412-A). a controller , including at least one processor, adapted to control setting of a blower of a therapy apparatus for controlling a supply of breathable gas at a controlled pressure above ambient in a patient interface , the controller coupled with at least one sensor for the therapy apparatus, the at least one sensor configured to measure pressure through a conduit from the therapy apparatus to the patient interface , the conduit in fluid communication with the patient interface , the patient interface configured to deliver the supply of breathable gas to an airway of a patient, the controller being further configured to determine gas pressure in the patient interface in presence of cyclical expiratory blocking and inspiratory unblocking of the conduit to the sensor , the determination of the gas pressure in the patient interface including a first unblocked-conduit process (4412-B) and a second blocked-conduit process (4412-A).
A method for dispensing dust suppressant comprising: forming an aqueous dispersion stream by delivering a surfactant composition to an aqueous liquid stream ; mixing the aqueous dispersion stream using an inline mixer to form dust suppressant; measuring surface tension of the dust suppressant in the dust suppressant stream via a tensiometer ; dispensing the dust suppressant to a surface at a pressure sufficient to provide coverage of the surface; relaying the measured surface tension to a controller ; adjusting the forming of the aqueous dispersion stream according to the measured surface tension relayed to the controller . forming an aqueous dispersion stream by delivering a surfactant composition to an aqueous liquid stream ; mixing the aqueous dispersion stream using an inline mixer to form dust suppressant; measuring surface tension of the dust suppressant in the dust suppressant stream via a tensiometer ; dispensing the dust suppressant to a surface at a pressure sufficient to provide coverage of the surface; relaying the measured surface tension to a controller ; adjusting the forming of the aqueous dispersion stream according to the measured surface tension relayed to the controller .
A polypropylene resin composition comprising component (A), component (B) and component (C) shown below, wherein a content of the component (A) is from 70 to 90 parts by weight, a content of the component (B) is from 10 to 30 parts by weight, and a content of the component (C) is from 1 to 5 parts by weight, when a total of the content of the component (A) and the content of the component (B) is taken as 100 parts by weight: (A) polypropylene, (B) talc having an average particle diameter of 1 μm to 8 μm, (C) polyethylene glycol, wherein a molecular weight at a maximum point of refractive index intensity in a chromatogram obtained by gel permeation chromatography using a differential refractometer is from 2,000 to 4,000, and S 2 /S 1 is from 1.3 to 2.0, when a peak area from an elution start point to an elution time corresponding to the maximum point of refractive index intensity is taken as S 1 and a peak area from the elution time corresponding to the maximum point of refractive index intensity to an elution end point is taken as S 2 . The measuring method of the particle size and the molecular weight distribution being disclosed in the description (A) polypropylene, (B) talc having an average particle diameter of 1 μm to 8 μm, (C) polyethylene glycol, wherein a molecular weight at a maximum point of refractive index intensity in a chromatogram obtained by gel permeation chromatography using a differential refractometer is from 2,000 to 4,000, and S 2 /S 1 is from 1.3 to 2.0, when a peak area from an elution start point to an elution time corresponding to the maximum point of refractive index intensity is taken as S 1 and a peak area from the elution time corresponding to the maximum point of refractive index intensity to an elution end point is taken as S 2 . The measuring method of the particle size and the molecular weight distribution being disclosed in the description
An information processing apparatus comprising: a line-of-sight information acquisition unit which is configured to acquire line-of-sight information related to a line-of-sight direction (SD) of a user; a movement information acquisition unit which is configured to acquire a center-of-gravity movement information related to a center-of-gravity movement direction (GD) of a body of the user; and a display control unit which is configured to perform a first display control for controlling a display device to provide the user with a visual field image according to an imaging posture of an imaging unit by moving a viewpoint of the imaging unit in the center-of-gravity movement direction (GD) while substantially maintaining the imaging posture of the imaging unit when an angle difference between the line-of-sight direction (SD) and the center-of-gravity movement direction (GD) does not exceed a first threshold value (E1) and is configured to perform a second display control for controlling the display device to provide the user with the visual field image by rotating the imaging posture of the imaging unit and moving the viewpoint of the imaging unit in the center-of-gravity movement direction (GD) when the angle difference between the line-of-sight direction (SD) and the center-of-gravity movement direction (GD) exceeds the first threshold value. a line-of-sight information acquisition unit which is configured to acquire line-of-sight information related to a line-of-sight direction (SD) of a user; a movement information acquisition unit which is configured to acquire a center-of-gravity movement information related to a center-of-gravity movement direction (GD) of a body of the user; and a display control unit which is configured to perform a first display control for controlling a display device to provide the user with a visual field image according to an imaging posture of an imaging unit by moving a viewpoint of the imaging unit in the center-of-gravity movement direction (GD) while substantially maintaining the imaging posture of the imaging unit when an angle difference between the line-of-sight direction (SD) and the center-of-gravity movement direction (GD) does not exceed a first threshold value (E1) and is configured to perform a second display control for controlling the display device to provide the user with the visual field image by rotating the imaging posture of the imaging unit and moving the viewpoint of the imaging unit in the center-of-gravity movement direction (GD) when the angle difference between the line-of-sight direction (SD) and the center-of-gravity movement direction (GD) exceeds the first threshold value.