mhurhangee/ep-ind-claims huggingface dataset:
Method for reducing the microbiological loading of container products which at least partially consist of at least one plastics material, in which plastic granules are supplied to an extruder device as part of a first production process, said extruder device melting the granules, which are passed on to a blow-fill-seal manufacturing machine to obtain the respective container product as part of a further, adjoining production process, the plastics material used in each case being subjected to at least one of the following treatment steps at least in parts of the production process: - high-energy radiation and/or - plasma treatment and/or - a gas with a sterilising effect, and characterised in that the respective treatment step takes place - if the plastic granules are still packed together in sack-like packages and, when said packages are opened, the granules are fed into the extruder device as part of the first production process or - if the plastic granules are supplied as part of a flat bulk or funnel-like feed to the screw conveyor of the extruder device as part of a separation process within the first production process. - high-energy radiation and/or - plasma treatment and/or - a gas with a sterilising effect, and characterised in that the respective treatment step takes place - if the plastic granules are still packed together in sack-like packages and, when said packages are opened, the granules are fed into the extruder device as part of the first production process or - if the plastic granules are supplied as part of a flat bulk or funnel-like feed to the screw conveyor of the extruder device as part of a separation process within the first production process.
A nozzle for a heat suppression system, the nozzle comprising: a nozzle body, the nozzle body defining an inlet, a first outlet, and a passageway, the passageway providing fluid communication between the inlet and the first outlet, the first outlet extending at least partially around a perimeter of the body; and a flow regulator located at least partially within the passageway and being movable with respect to the body, movement of the flow regulator selectively opening or closing at least one portion of the first outlet, wherein the fluid directed through the first outlet forms a fluid flow pattern extending away from the nozzle, and wherein movement of the flow regulator and/or relative movement of a first body portion of the body and a second body portion of the body changes a circumferential extent of the fluid flow pattern. a nozzle body, the nozzle body defining an inlet, a first outlet, and a passageway, the passageway providing fluid communication between the inlet and the first outlet, the first outlet extending at least partially around a perimeter of the body; and a flow regulator located at least partially within the passageway and being movable with respect to the body, movement of the flow regulator selectively opening or closing at least one portion of the first outlet, wherein the fluid directed through the first outlet forms a fluid flow pattern extending away from the nozzle, and wherein movement of the flow regulator and/or relative movement of a first body portion of the body and a second body portion of the body changes a circumferential extent of the fluid flow pattern.
A sliding member comprising: a base material; a coating layer formed on the base material and made of a resin composition including the following -; a binder resin including polyamideimide; PTFE dispersed in the binder resin; and graphite and MoS 2 dispersed in the binder resin; wherein PTFE has an average particle diameter less than 10μm and wherein PTFE has an average particle diameter larger than that of graphite and MoS 2; the content of the binder resin in the resin composition is 50 vol % to 80 vol%; the content of PTFE in the resin composition is 10 vol% to 30 vol%; the content of MoS 2 in the resin composition is more than 0 to 10 vol%; the content of graphite is more than 0 to 20 vol%; and a surface roughness of the coating layer after a sliding test is equal to or less than the surface roughness of the coating layer before the sliding test, the sliding test being carried out under the following condition: Testing device: Oil spray type poor lubrication tester Speed: 6.3 m/sec Surface pressure: 2 to 20 MPa (incremental increase: 2 MPa/min.) Time: up to 10 min. Lubrication method: Spray Lubricating oil: refrigeration oil Counterpart material: Bearing steel. a base material; a coating layer formed on the base material and made of a resin composition including the following -; a binder resin including polyamideimide; PTFE dispersed in the binder resin; and graphite and MoS 2 dispersed in the binder resin; a binder resin including polyamideimide; PTFE dispersed in the binder resin; and graphite and MoS 2 dispersed in the binder resin; wherein PTFE has an average particle diameter less than 10μm and wherein PTFE has an average particle diameter larger than that of graphite and MoS 2; the content of the binder resin in the resin composition is 50 vol % to 80 vol%; the content of PTFE in the resin composition is 10 vol% to 30 vol%; the content of MoS 2 in the resin composition is more than 0 to 10 vol%; the content of graphite is more than 0 to 20 vol%; and a surface roughness of the coating layer after a sliding test is equal to or less than the surface roughness of the coating layer before the sliding test, the sliding test being carried out under the following condition: Testing device: Oil spray type poor lubrication tester Speed: 6.3 m/sec Surface pressure: 2 to 20 MPa (incremental increase: 2 MPa/min.) Time: up to 10 min. Lubrication method: Spray Lubricating oil: refrigeration oil Counterpart material: Bearing steel. Testing device: Oil spray type poor lubrication tester Speed: 6.3 m/sec Surface pressure: 2 to 20 MPa (incremental increase: 2 MPa/min.) Time: up to 10 min. Lubrication method: Spray Lubricating oil: refrigeration oil Counterpart material: Bearing steel.
A glass film laminate comprising a glass film and a supporting glass laminated to each other, characterized in that each of the glass film and the supporting glass comprises a contacting surface formed into a smooth surface having a surface roughness Ra of 2.0 nm or less, while the contacting surface of the supporting glass comprises a region of rough surface having a surface roughness greater than that of the smooth surface, the contacting surface of the glass film and the contacting surface of the supporting glass directly contact each other, so that the contacting surfaces adhere with a relatively strong adhesive force between the smooth surfaces of the glass film and the supporting glass, while adhering with a relatively weak adhesive force at the region of the rough surface of the supporting glass and the smooth surface of the glass film.
An UV irradiator configured to generate radiation adapted to selectively affect or destroy at least one bacteria on or within a body, while substantially avoiding harming to any of cells of the body, comprising: a first arrangement having a radiation source configured to generate radiation having a single wavelength of about 207 nanometers, nm, and/or about 222 nm; and at least one second arrangement comprising a spectrum filtering element configured to filter out any wavelength that is outside of about 207 nm and/or about 222 nm. a first arrangement having a radiation source configured to generate radiation having a single wavelength of about 207 nanometers, nm, and/or about 222 nm; and at least one second arrangement comprising a spectrum filtering element configured to filter out any wavelength that is outside of about 207 nm and/or about 222 nm.
An in vitro method of identifying a compound involved in pain, the method comprising the steps of: a) providing a cell-based or cell-free test system comprising Ifi205 (interferon-inducible p205) or MNDA nucleic acid, b) contacting the test system with a test compound, and c) determining the effect of the test compound on the test system, wherein the test compound is identified as a compound involved in pain, when a significant effect of the test compound on the test system relative to a control is detected, wherein the control is the test system not contacted with the test compound, and wherein the effect is an altered nucleic acid expression level of Ifi205 or MNDA. a) providing a cell-based or cell-free test system comprising Ifi205 (interferon-inducible p205) or MNDA nucleic acid, b) contacting the test system with a test compound, and c) determining the effect of the test compound on the test system,
Photoreactor comprising a contained reaction chamber, wherein the chamber is separated from the exterior by a light-capturing wall and another wall, the capturing wall and the other wall being parallel to each other; the photoreactor additionally comprises a thermal valve placed against the other wall for passively controlling the increase in heat inside the chamber due to the radiation passing through the capturing wall for maintaining the temperature in at least one part of the chamber under a threshold temperature (Ts), the thermal valve being made of a phase-change material; characterised in that the photoreactor comprises a heat exchanger placed against the thermal valve, if applicable, opposite the other wall and ensuring heat exchange between the thermal valve and the exterior.
An imaging system that calibrates a parameter of an imaging apparatus (10, 10A-10N) disposed in a predetermined position, the imaging system comprising: a movement controller that causes a movable object that includes a marker for use in calibration to move into an imaging area of the imaging apparatus; an imaging controller that causes the imaging apparatus to image the marker; and a calibrator that calibrates an internal parameter of the imaging apparatus, using an image that includes the marker, the image being captured by the imaging apparatus imaging the marker, characterized in that the movable object includes a display apparatus that displays the marker, the shape of the marker displayed on the display apparatus is changed so that the shape of the marker included in an image captured by the imaging apparatus is rectangular or square; and the movement controller causes the movable object to move so as to cause the marker to be imaged over entirety of an image sensor that is included in the imaging apparatus. a movement controller that causes a movable object that includes a marker for use in calibration to move into an imaging area of the imaging apparatus; an imaging controller that causes the imaging apparatus to image the marker; and a calibrator that calibrates an internal parameter of the imaging apparatus, using an image that includes the marker, the image being captured by the imaging apparatus imaging the marker, characterized in that the movable object includes a display apparatus that displays the marker, the shape of the marker displayed on the display apparatus is changed so that the shape of the marker included in an image captured by the imaging apparatus is rectangular or square; and the movement controller causes the movable object to move so as to cause the marker to be imaged over entirety of an image sensor that is included in the imaging apparatus.
An electric tool powered by a secondary battery as a power source, comprising: an output section configured to be transmitted thereto a rotation of a motor directly or through a decelerator; a voltage measurement section configured to measure a battery voltage; a storage means (32; 7) configured to store, as a reference voltage, a voltage value of the battery voltage that has been measured preliminarily when a motor-lock is occurring; and a control means configured to control a driving of said motor, wherein said control means is configured to decide that said motor is being locked and then stop or decelerate said motor upon detecting that the battery voltage measured through said voltage measurement section is maintained lower than or equal to the reference voltage stored in said storage means (32; 7) for a predetermined period of time during the driving of said motor, and wherein the control means does not stop the motor when the battery voltage decreases to the reference voltage due to a voltage drop caused of a starting current for starting the rotation of the motor. an output section configured to be transmitted thereto a rotation of a motor directly or through a decelerator; a voltage measurement section configured to measure a battery voltage; a storage means (32; 7) configured to store, as a reference voltage, a voltage value of the battery voltage that has been measured preliminarily when a motor-lock is occurring; and a control means configured to control a driving of said motor, wherein said control means is configured to decide that said motor is being locked and then stop or decelerate said motor upon detecting that the battery voltage measured through said voltage measurement section is maintained lower than or equal to the reference voltage stored in said storage means (32; 7) for a predetermined period of time during the driving of said motor, and wherein the control means does not stop the motor when the battery voltage decreases to the reference voltage due to a voltage drop caused of a starting current for starting the rotation of the motor.
A winding machine for winding continuous webs of material, in particular for films, with a piecing-up system, comprising a first piecing-up point, which, when winding the continuous web of material around a winding core in a first direction, at least partially loops around the continuous web of material, characterized in that the piecing-up system includes a second piecing-up point, which is adapted to wind the continuous web of material in a second direction around the winding core.
A method of controlling radio transmission in a wireless communication network, the method comprising: identifying, by an access node of the wireless communication network, radio devices subject to a first timing requirement for receiving downlink control information and radio devices subject to a second timing requirement for receiving downlink control information which is stricter than the first timing requirement in terms of latency; determining, by the access node of the wireless communication network, a configuration of a first search space in terms of first time domain coordinates and first frequency domain coordinates of a time-frequency grid of radio resource elements based on the first timing requirement; determining, by the access node (100; 600; 900), a configuration of a second search space in terms of second time coordinates and second frequency domain coordinates of the time-frequency grid, based on the second timing requirement, the second search space differing from the first search space at least with respect to the time domain coordinates; transmitting, by the access node (100; 600; 900), in radio resource elements of the first search space, downlink control information for a first class of radio devices subject to the first timing requirement; and transmitting, by the access node (100; 600; 900), in radio resource elements of the second search space, downlink control information for a second class of radio devices subject to the second timing requirement. identifying, by an access node of the wireless communication network, radio devices subject to a first timing requirement for receiving downlink control information and radio devices subject to a second timing requirement for receiving downlink control information which is stricter than the first timing requirement in terms of latency; determining, by the access node of the wireless communication network, a configuration of a first search space in terms of first time domain coordinates and first frequency domain coordinates of a time-frequency grid of radio resource elements based on the first timing requirement; determining, by the access node (100; 600; 900), a configuration of a second search space in terms of second time coordinates and second frequency domain coordinates of the time-frequency grid, based on the second timing requirement, the second search space differing from the first search space at least with respect to the time domain coordinates; transmitting, by the access node (100; 600; 900), in radio resource elements of the first search space, downlink control information for a first class of radio devices subject to the first timing requirement; and transmitting, by the access node (100; 600; 900), in radio resource elements of the second search space, downlink control information for a second class of radio devices subject to the second timing requirement.
A method for controlling a projector display system comprising a light source, a first modulator, a second modulator and a relay optical system that is placed in between the first modulator and the second modulator, the light source comprising a plurality of individually modulated color emitters, said projector display system capable of recycling light from the light source the method comprising: receiving an input image; producing, using the first modulator, an image based on the input image; and providing, using the relay optical system, a uniformly blurred and de-focused image to the second modulator from the image produced using the first modulator, the method further comprising: calculating, based on the input image, an average picture level for each individually modulated color; determining the relative brightness increase for each individually modulated color; and reducing the illumination source intensity to the reciprocal of the brightness increase for each individually modulated color. receiving an input image; producing, using the first modulator, an image based on the input image; and providing, using the relay optical system, a uniformly blurred and de-focused image to the second modulator from the image produced using the first modulator, the method further comprising: calculating, based on the input image, an average picture level for each individually modulated color; determining the relative brightness increase for each individually modulated color; and reducing the illumination source intensity to the reciprocal of the brightness increase for each individually modulated color. calculating, based on the input image, an average picture level for each individually modulated color; determining the relative brightness increase for each individually modulated color; and reducing the illumination source intensity to the reciprocal of the brightness increase for each individually modulated color.
A modifiable cylinder body for electronic locking systems, particularly for electronic locking cylinders, wherein the cylinder body comprises: an intermediate module and at least one outside closing module and/or an inside closing module, wherein an arbitrary number of extension modules can be inserted between the intermediate module and the outside closing module and/or between the intermediate module and the inside closing module, wherein a first one of the modules (10, 20, 30, 40) can be fixedly connected with a second one of the modules (10, 20, 30, 40) by an axially arranged connecting element, wherein a food portion of the connecting element is fixedly connected with the first module in axial tension direction, and a head portion of the connecting element is inserted axially movably into the second module, characterized in that a straining element radially inserted into the second module acts against the head portion in tension direction, and that a straining force is set up acting against the head portion in tension direction such that said straining tension is set up within the connecting element and a corresponding counter force forces the head portion and optional extension modules against the intermediate module. an intermediate module and at least one outside closing module and/or an inside closing module, wherein an arbitrary number of extension modules can be inserted between the intermediate module and the outside closing module and/or between the intermediate module and the inside closing module, wherein a first one of the modules (10, 20, 30, 40) can be fixedly connected with a second one of the modules (10, 20, 30, 40) by an axially arranged connecting element, wherein a food portion of the connecting element is fixedly connected with the first module in axial tension direction, and a head portion of the connecting element is inserted axially movably into the second module, characterized in that a straining element radially inserted into the second module acts against the head portion in tension direction, and that a straining force is set up acting against the head portion in tension direction such that said straining tension is set up within the connecting element and a corresponding counter force forces the head portion and optional extension modules against the intermediate module. wherein a food portion of the connecting element is fixedly connected with the first module in axial tension direction, and a head portion of the connecting element is inserted axially movably into the second module, characterized in that a straining element radially inserted into the second module acts against the head portion in tension direction, and that a straining force is set up acting against the head portion in tension direction such that said straining tension is set up within the connecting element and a corresponding counter force forces the head portion and optional extension modules against the intermediate module.
Method to start a combustion engine in a hybrid powertrain, comprising a gearbox with an input shaft and an output shaft; an output shaft of the combustion engine, which is connected to the input shaft of the gearbox; a first planetary gear, which is connected to the input shaft, which input shaft of the gearbox is connected with a first planetary wheel carrier, arranged in the first planetary gear, which comprises further a first sun wheel; a second planetary gear, connected to the first planetary gear; a first electrical machine, connected to the first planetary gear; a second electrical machine, connected to the second planetary gear; at least one first gear pair (G1, 60, 72), connected with the first planetary gear and the output shaft; and at least one second gear pair (G2, 66, 78), connected with the second planetary gear and the output shaft; a second coupling device arranged between a second sun wheel and a second planetary wheel carrier of the second planetary gear, the method comprising the steps of: a) connecting, with the second coupling device, the second sun wheel and the second planetary wheel carrier of the second planetary gear with each other, and b) activating the first electrical machine and the second electrical machine, so that the first and second electrical machines (14, 16) rotate in the direction of the output shaft of the combustion engine and so that the combustion engine starts. a) connecting, with the second coupling device, the second sun wheel and the second planetary wheel carrier of the second planetary gear with each other, and b) activating the first electrical machine and the second electrical machine, so that the first and second electrical machines (14, 16) rotate in the direction of the output shaft of the combustion engine and so that the combustion engine starts.
A monoclonal antibody that binds to a region selected from the group consisting of an R1 region having the amino acid sequence set forth in SEQ ID NO: 6, an R2 region having the amino acid sequence set forth in SEQ ID NO: 8, and an R3 region having the amino acid sequence set forth in SEQ ID NO: 10 of periostin, wherein the antibody does not bind to periostin multimers.