mhurhangee/patent-ind-claim-en huggingface dataset:
A method for producing an oil-in-water emulsion composition, the method comprising mechanically emulsifying (A) an organopolysiloxane having an overall viscosity at 25°C of at least 1,000,000 mPa·s or having plasticity or a mixture thereof using (B) at least one type of surfactant in (C) water using a vertical batch mixer, wherein the vertical batch mixer is a concentric multiple shaft vertical batch mixer having multiple rotating shafts arranged along the same shaft core, and comprising a ribbon-shaped stirring blade arranged on at least one rotating shaft and a non-ribbon-shaped stirring blade arranged on a rotating shaft different from the at least one rotating shaft, wherein the oil-in-water emulsion composition comprises: (A) 100 parts by mass of an organopolysiloxane having an overall viscosity at 25°C of at least 1,000,000 mPa·s or having plasticity or a mixture thereof, (B) 0.1 to 30 parts by mass of at least one type of surfactant, and (C) 100 to 2,000 parts by mass of water; wherein component (A) is emulsified in water by component (B) to obtain an emulsion, the average particle size of the emulsion particles measured using the laser diffraction/scattering method is in a range from 0.1 to 7.5 μm, the amount of emulsion particles having a particle size of at least 10 times the average particle size in the particle size distribution of the emulsion is less than 5.0% by volume, and the apparent viscosity at 25°C of the oil phase (component (A)) constituting the emulsion particles is at least 1,000,000 mPa·s or has plasticity as measured in accordance with the method specified in JIS K6249, and where viscosity is determined using a rotary viscometer. (A) 100 parts by mass of an organopolysiloxane having an overall viscosity at 25°C of at least 1,000,000 mPa·s or having plasticity or a mixture thereof, (B) 0.1 to 30 parts by mass of at least one type of surfactant, and (C) 100 to 2,000 parts by mass of water; wherein component (A) is emulsified in water by component (B) to obtain an emulsion, the average particle size of the emulsion particles measured using the laser diffraction/scattering method is in a range from 0.1 to 7.5 μm, the amount of emulsion particles having a particle size of at least 10 times the average particle size in the particle size distribution of the emulsion is less than 5.0% by volume, and the apparent viscosity at 25°C of the oil phase (component (A)) constituting the emulsion particles is at least 1,000,000 mPa·s or has plasticity as measured in accordance with the method specified in JIS K6249, and where viscosity is determined using a rotary viscometer.
A method for freeze-drying drug liposomes powder assisted by variable-frequency alternating-current electric field is provided, characterized in that : this method comprises the following steps: preparing a drug-liposome suspension sample; dehydrating the sample under a 1-10 kHz, 3-10 kV high-voltage alternating current; freezing and drying the sample treated in step at -20 °C to -40 °C, under a 10-25 kHz, 0.2-1 kV high-voltage alternating current, until completion of the freezing process; and heating and drying the sample in a vacuum until completion of sublimation and desorption, and obtaining the drug liposomes freeze-dried powder. preparing a drug-liposome suspension sample; dehydrating the sample under a 1-10 kHz, 3-10 kV high-voltage alternating current; freezing and drying the sample treated in step at -20 °C to -40 °C, under a 10-25 kHz, 0.2-1 kV high-voltage alternating current, until completion of the freezing process; and heating and drying the sample in a vacuum until completion of sublimation and desorption, and obtaining the drug liposomes freeze-dried powder.
A slide fastener comprising: left and right fastener stringers with fastener elements attached to opposed side-edges of fastener tapes , each fastener element including an attachment base secured to the side-edge of the fastener tape and a head having an engagement protrusion (B1,B2) positioned away from said side-edge of the fastener tape , and the engagement protrusion (B1,B2) including a front protrusion protruding forward and a rear protrusion protruding rearward; and a slider that moves forward to engage left and right fastener elements (2 1,22) included in the left and right fastener stringers , the left and right fastener elements coming into initial contact on the front protrusion and the rear protrusion alternately inside of the slider as the slider moves forward, characterized in that when a given pair of left and right fastener elements (E0,E1) included in the left and right fastener elements (2 1,22) come into said initial contact on the rear protrusion of an anterior fastener element (E0) of the given pair of left and right fastener elements (E0,E1) and the front protrusion of a posterior fastener element (E1) of the given pair of left and right fastener elements (E0,E1), the rear protrusion of the posterior fastener element (E1) is not in contact with the front protrusion of a fastener element (E2) immediately posterior to said posterior fastener element (E1). left and right fastener stringers with fastener elements attached to opposed side-edges of fastener tapes , each fastener element including an attachment base secured to the side-edge of the fastener tape and a head having an engagement protrusion (B1,B2) positioned away from said side-edge of the fastener tape , and the engagement protrusion (B1,B2) including a front protrusion protruding forward and a rear protrusion protruding rearward; and a slider that moves forward to engage left and right fastener elements (2 1,22) included in the left and right fastener stringers , the left and right fastener elements coming into initial contact on the front protrusion and the rear protrusion alternately inside of the slider as the slider moves forward, characterized in that when a given pair of left and right fastener elements (E0,E1) included in the left and right fastener elements (2 1,22) come into said initial contact on the rear protrusion of an anterior fastener element (E0) of the given pair of left and right fastener elements (E0,E1) and the front protrusion of a posterior fastener element (E1) of the given pair of left and right fastener elements (E0,E1), the rear protrusion of the posterior fastener element (E1) is not in contact with the front protrusion of a fastener element (E2) immediately posterior to said posterior fastener element (E1).
A motor comprising: a shaft extending along an axial direction; a rotor coupled to the shaft ; and a stator disposed outside the rotor , wherein the rotor includes: a bearing holder including a cylinder portion and a flange portion ; a first bearing and a second bearing disposed in the cylinder portion ; a rotor core including a hole coupled to the cylinder portion ; and a magnet coupled to the rotor core , wherein the rotor core includes a pocket portion , the magnet is disposed in the pocket portion , the flange portion is disposed on a first axial end of the rotor core , the cylinder portion includes a first region in which the first bearing is disposed and a second region in which the second bearing is disposed, wherein the first region and the second region of the cylinder portion are inserted into the hole of the rotor core , characterized in that the flange portion is disposed on the magnet , that the bearing holder includes a groove formed in the second region , and that a plate is coupled to the groove and disposed on a surface of the rotor core which is axially opposite to the first axial side. a shaft extending along an axial direction; a rotor coupled to the shaft ; and a stator disposed outside the rotor , wherein the rotor includes: a bearing holder including a cylinder portion and a flange portion ; a first bearing and a second bearing disposed in the cylinder portion ; a rotor core including a hole coupled to the cylinder portion ; and a magnet coupled to the rotor core , wherein the rotor core includes a pocket portion , the magnet is disposed in the pocket portion , the flange portion is disposed on a first axial end of the rotor core , the cylinder portion includes a first region in which the first bearing is disposed and a second region in which the second bearing is disposed, wherein the first region and the second region of the cylinder portion are inserted into the hole of the rotor core , characterized in that the flange portion is disposed on the magnet , that the bearing holder includes a groove formed in the second region , and that a plate is coupled to the groove and disposed on a surface of the rotor core which is axially opposite to the first axial side. a bearing holder including a cylinder portion and a flange portion ; a first bearing and a second bearing disposed in the cylinder portion ; a rotor core including a hole coupled to the cylinder portion ; and a magnet coupled to the rotor core , wherein the rotor core includes a pocket portion , the magnet is disposed in the pocket portion , the flange portion is disposed on a first axial end of the rotor core , the cylinder portion includes a first region in which the first bearing is disposed and a second region in which the second bearing is disposed, wherein the first region and the second region of the cylinder portion are inserted into the hole of the rotor core , characterized in that the flange portion is disposed on the magnet , that the bearing holder includes a groove formed in the second region , and that a plate is coupled to the groove and disposed on a surface of the rotor core which is axially opposite to the first axial side.
A method for automation control using a mobile device , comprising: receiving, at a mobile device, input corresponding to selection of a remote controlled home automation device; capturing, using an image sensor, a first image of a house-hold object to designate as a control marker for the remote controlled home automation device; capturing, using a position sensor, a first position of the mobile device; capturing, using the image sensor, a second image of the house-hold object to designate as the control marker ; capturing, using the position sensor, a second position of the mobile device; generating a definition for the control marker using the first image and the second image; determining a relative position of the mobile device in relation to the house-hold object designated as a control marker for the remote controlled home automation device; capturing, using the image sensor, a third image of the house-hold object; based on the third image, the relative position of the mobile device and the definition, determining that the mobile device is pointing at the control marker; providing an indication that the mobile device is pointing at the control marker; determining a user interface for the remote controlled home automation device; and providing the user interface on the mobile device for interacting with the remote controlled home automation device; wherein the user interface includes features specific to the remote controlled home automation device. receiving, at a mobile device, input corresponding to selection of a remote controlled home automation device; capturing, using an image sensor, a first image of a house-hold object to designate as a control marker for the remote controlled home automation device; capturing, using a position sensor, a first position of the mobile device; capturing, using the image sensor, a second image of the house-hold object to designate as the control marker ; capturing, using the position sensor, a second position of the mobile device; generating a definition for the control marker using the first image and the second image; determining a relative position of the mobile device in relation to the house-hold object designated as a control marker for the remote controlled home automation device; capturing, using the image sensor, a third image of the house-hold object; based on the third image, the relative position of the mobile device and the definition, determining that the mobile device is pointing at the control marker; providing an indication that the mobile device is pointing at the control marker; determining a user interface for the remote controlled home automation device; and providing the user interface on the mobile device for interacting with the remote controlled home automation device; wherein the user interface includes features specific to the remote controlled home automation device.
A therapeutic device for attachment to a human or animal body, comprising: a flexible substrate, an array of infrared-emitting ceramic elements disposed on or within the substrate, and an attachment means, the array comprising at least a first plurality of infrared-emitting ceramic elements having a first specific spectral luminance covering the wavelength range of 3-7 μm and a first peak wavelength within the range of 3-7 μm, said therapeutic device being characterised by further comprising at least a second infrared-emitting ceramic element having a second specific spectral luminance covering the wavelength range of 7-14 μm and a second peak wavelength within the range of 7-14 μm, wherein the first specific spectral luminance is different from the second specific spectral luminance, and wherein the first peak wavelength is different from the second peak wavelength.
A method for holding a substrate on a support configured for processing essentially vertically oriented large area substrates, wherein the substrate has a size of 1.4 m 2 or more, and wherein the support is comprised in a transportation system configured to transport the substrate, comprising: - attaching an adhesive to the support, wherein the material of the adhesive is a synthetic setae material, and wherein the adhesive is configured to attach the substrate to the support; - attaching the adhesive to the substrate; and - processing the substrate having an essentially vertical orientation. - attaching an adhesive to the support, wherein the material of the adhesive is a synthetic setae material, and wherein the adhesive is configured to attach the substrate to the support; - attaching the adhesive to the substrate; and - processing the substrate having an essentially vertical orientation.
A microphone boom structure, comprising a first end boom segment, a second end boom segment, and a plurality of intermediate boom segments sequentially disposed between the first end boom segment and the second end boom segment; an end of the first end boom segment is hinged with an end of the adjacent intermediate boom segment, an end of the second end boom segment is hinged with an end of the adjacent intermediate boom segment, and the ends of two adjacent intermediate boom segments are hinged; an adjusting structure is further provided between the end of the first end boom segment and the end of the adjacent intermediate boom segment, the end of the second end boom segment and the end of the adjacent intermediate boom segment, and the ends of two adjacent intermediate boom segments, respectively; and the adjusting structure comprises an axial hole provided in a boom segment, an adjusting bar inserted into the axial hole, and a compression member disposed between the axial hole and the adjusting bar, characterized in that the compression member is elastic; and the axial hole extends along an axis of the boom segment and the adjusting bar extends along the axial hole.
A system for managing cardiopulmonary resuscitation, CPR, treatment to a person in need of emergency assistance, the system comprising: a sensor interface configured to receive input from one or more sensors adapted to measure information indicative of CPR being provided to the person in need of emergency assistance; a processor operatively coupled with the sensor interface and configured to receive the input from the one or more sensors ; and an output interface in communication with the processor and configured to generate haptic feedback for a rescuer ; characterized by a chest compression assembly configured to be placed on a chest of the person in need of emergency assistance, wherein the chest compression assembly comprising a housing upon which a rescuer places his/her hands to perform chest compressions on the person in need of emergency assistance, and in that said sensors are positioned within the chest compression assembly , said processor is further configured to generate an indication of quality of the CPR being provided to the person in need of emergency assistance, and said haptic feedback being based on the indication of the quality of the CPR and provided to the rescuer via the housing . a sensor interface configured to receive input from one or more sensors adapted to measure information indicative of CPR being provided to the person in need of emergency assistance; a processor operatively coupled with the sensor interface and configured to receive the input from the one or more sensors ; and an output interface in communication with the processor and configured to generate haptic feedback for a rescuer ; characterized by a chest compression assembly configured to be placed on a chest of the person in need of emergency assistance, wherein the chest compression assembly comprising a housing upon which a rescuer places his/her hands to perform chest compressions on the person in need of emergency assistance, and in that said sensors are positioned within the chest compression assembly , said processor is further configured to generate an indication of quality of the CPR being provided to the person in need of emergency assistance, and said haptic feedback being based on the indication of the quality of the CPR and provided to the rescuer via the housing .
A coordinate measuring apparatus with a plurality of axes (X1, Y1, Z1, A1), a rotatably driveable receptacle for a gear workpiece to be measured, and a measuring assembly , wherein the coordinate measuring apparatus is designed to carry out feed movements and measuring movements of the measuring assembly relative to the gear workpiece , characterized in that the measuring assembly comprises: - an optical, contactless operating switch sensor , ∘ which is designed as a focus trigger sensor, wherein the focus trigger sensor is arranged on the measuring assembly in such a way that it is able to emit a light beam (LS) along an optical axis in the direction of an object plane (OE) of the gear workpiece ∘ wherein a scanning movement relative to the object plane (OE) of the gear workpiece can be carried out with the focus trigger sensor by using one or more of the axes (X1, Y1, Z1, A1), and wherein a switching signal (s2) can always be provided by the focus trigger sensor when the object plane (OE) has reached a nominal distance (NA) relative to the focus trigger sensor and wherein the current coordinate information of the coordinate measuring apparatus is read out and/or stored at the moment when the focus trigger sensor provides the switching signal (s2). - an optical, contactless operating switch sensor , ∘ which is designed as a focus trigger sensor, wherein the focus trigger sensor is arranged on the measuring assembly in such a way that it is able to emit a light beam (LS) along an optical axis in the direction of an object plane (OE) of the gear workpiece ∘ wherein a scanning movement relative to the object plane (OE) of the gear workpiece can be carried out with the focus trigger sensor by using one or more of the axes (X1, Y1, Z1, A1), and wherein a switching signal (s2) can always be provided by the focus trigger sensor when the object plane (OE) has reached a nominal distance (NA) relative to the focus trigger sensor and wherein the current coordinate information of the coordinate measuring apparatus is read out and/or stored at the moment when the focus trigger sensor provides the switching signal (s2). ∘ which is designed as a focus trigger sensor, wherein the focus trigger sensor is arranged on the measuring assembly in such a way that it is able to emit a light beam (LS) along an optical axis in the direction of an object plane (OE) of the gear workpiece ∘ wherein a scanning movement relative to the object plane (OE) of the gear workpiece can be carried out with the focus trigger sensor by using one or more of the axes (X1, Y1, Z1, A1), and wherein a switching signal (s2) can always be provided by the focus trigger sensor when the object plane (OE) has reached a nominal distance (NA) relative to the focus trigger sensor and wherein the current coordinate information of the coordinate measuring apparatus is read out and/or stored at the moment when the focus trigger sensor provides the switching signal (s2).
An active stylus configured to transmit data to a sensor controller coupled to a sensor, the active stylus comprising: a pen-tip electrode , and a stylus controller, which is coupled to the pen-tip electrode and which, in operation, establishes a communication channel between the active stylus and the sensor controller by transmitting to the sensor controller a first packet including a stylus ID of the active stylus , the stylus ID being a global ID of 5 bits or more, and by receiving a local ID assigned to the active stylus by the sensor controller , and after the communication channel is established, transmits to the sensor controller a second packet that includes operation state data indicative of an operation state of the active stylus and that does not include the stylus ID, to enable the sensor to correlate positions of the active stylus with the stylus ID, wherein the stylus controller establishes the communication channel after having received, via the pen-tip electrode from the sensor controller , channel data indicative of the communication channel determined by the sensor controller , and wherein the first packet is a response packet including the stylus ID and being indicative of reception of the channel data. a pen-tip electrode , and a stylus controller, which is coupled to the pen-tip electrode and which, in operation, establishes a communication channel between the active stylus and the sensor controller by transmitting to the sensor controller a first packet including a stylus ID of the active stylus , the stylus ID being a global ID of 5 bits or more, and by receiving a local ID assigned to the active stylus by the sensor controller , and after the communication channel is established, transmits to the sensor controller a second packet that includes operation state data indicative of an operation state of the active stylus and that does not include the stylus ID, to enable the sensor to correlate positions of the active stylus with the stylus ID, wherein the stylus controller establishes the communication channel after having received, via the pen-tip electrode from the sensor controller , channel data indicative of the communication channel determined by the sensor controller , and wherein the first packet is a response packet including the stylus ID and being indicative of reception of the channel data.