mhurhangee/patent-ind-claim-en huggingface dataset:
A deployment device to be positioned on a supporting structure , comprising: • a first instrument and a second instrument , • a deployment mechanism comprising: ∘ a main arm connectable to a face of the supporting structure at a first attachment point on the one hand and to the first instrument on the other hand, the second instrument being connected to the main arm , ∘ a main motor configured to actuate the main arm relative to the face , ∘ a secondary motor configured to actuate the second instrument relative to the main arm , said deployment device being characterised in that the two instruments are able to pass from a stored configuration, one on the other on the face of the supporting structure , to a deployed configuration in which the two instruments are remote from one another and from the supporting structure , and/or vice versa, through rotational movement of the second instrument by the secondary motor . • a first instrument and a second instrument , • a deployment mechanism comprising: ∘ a main arm connectable to a face of the supporting structure at a first attachment point on the one hand and to the first instrument on the other hand, the second instrument being connected to the main arm , ∘ a main motor configured to actuate the main arm relative to the face , ∘ a secondary motor configured to actuate the second instrument relative to the main arm , ∘ a main arm connectable to a face of the supporting structure at a first attachment point on the one hand and to the first instrument on the other hand, the second instrument being connected to the main arm , ∘ a main motor configured to actuate the main arm relative to the face , ∘ a secondary motor configured to actuate the second instrument relative to the main arm ,
An article comprising: a polymeric layer comprising a polyoxyalkylene polymer having at least one end group derived from an alkoxy silane disposed on and covering a first major surface of a porous layer having an elongation of greater than or equal to 90% in either the cross direction or the machine direction as measured by the elongation test method in the examples of the specification, wherein the polymeric layer and the porous layer together form an air and water barrier that has a permeance of more than 57 nanograms/ second*square meter*Pascal (one perm) as measured by the moisture vapor transmission rate test method in the examples of the specification; an adhesive layer disposed on a second major surface of the porous layer opposite the polymeric layer; and a liner disposed on a major surface of the polymeric layer opposite the first major surface of the porous layer, wherein the liner has a permeance of less than 57 nanograms/ second*square meter*Pascal (one perm) as measured by the moisture vapor transmission rate test method in the examples of the specification. a polymeric layer comprising a polyoxyalkylene polymer having at least one end group derived from an alkoxy silane disposed on and covering a first major surface of a porous layer having an elongation of greater than or equal to 90% in either the cross direction or the machine direction as measured by the elongation test method in the examples of the specification, wherein the polymeric layer and the porous layer together form an air and water barrier that has a permeance of more than 57 nanograms/ second*square meter*Pascal (one perm) as measured by the moisture vapor transmission rate test method in the examples of the specification; an adhesive layer disposed on a second major surface of the porous layer opposite the polymeric layer; and a liner disposed on a major surface of the polymeric layer opposite the first major surface of the porous layer, wherein the liner has a permeance of less than 57 nanograms/ second*square meter*Pascal (one perm) as measured by the moisture vapor transmission rate test method in the examples of the specification.
A method of decoding video data, the method comprising: receiving , by a video decoder, in a bitstream that comprises an encoded representation of the video data, local quantization information for a current quantization group; determining , by the video decoder, a partitioning of a coding tree unit (CTU) of a picture of the video data into a plurality of coding units (CUs), the plurality of CUs including one or more non-square CUs; deriving , by the video decoder, based at least in part on the local quantization information for the current quantization group, a quantization parameter, wherein the current quantization group is defined as a group of successive, in coding order, CUs in the plurality of CUs so that boundaries of the current quantization group must be boundaries of the CUs and a size of the current quantization group is greater than or equal to a threshold, and at least one CU of the plurality of CUs is included in a non-square quantization group; inverse quantizing , by the video decoder, based on the quantization parameter, at least one transform coefficient of a current CU, the current CU being one of the CUs in the current quantization group; and reconstructing , by the video decoder, based on inverse quantized transform coefficients of the current CU, a coding block of the current CU. receiving , by a video decoder, in a bitstream that comprises an encoded representation of the video data, local quantization information for a current quantization group; determining , by the video decoder, a partitioning of a coding tree unit (CTU) of a picture of the video data into a plurality of coding units (CUs), the plurality of CUs including one or more non-square CUs; deriving , by the video decoder, based at least in part on the local quantization information for the current quantization group, a quantization parameter, wherein the current quantization group is defined as a group of successive, in coding order, CUs in the plurality of CUs so that boundaries of the current quantization group must be boundaries of the CUs and a size of the current quantization group is greater than or equal to a threshold, and at least one CU of the plurality of CUs is included in a non-square quantization group; inverse quantizing , by the video decoder, based on the quantization parameter, at least one transform coefficient of a current CU, the current CU being one of the CUs in the current quantization group; and reconstructing , by the video decoder, based on inverse quantized transform coefficients of the current CU, a coding block of the current CU.
A machine implemented method for determining whether to grant access to a secure entity comprising: receiving a passcode from a user; retrieving a passcode generator; generating , via the machine, the passcode that is valid temporarily, based on information associated with a user from the passcode generator; determining whether the attempted access is permitted, based on the passcode, including determining whether the generated passcode matches the received passcode, and if the generated passcode matches the received passcode, granting the user access to a secure entity; wherein the method further comprises: if the generated passcode matches the received passcode, perturbing the passcode generator to create a new passcode generator; and storing the new passcode generator in place of the passcode generator. receiving a passcode from a user; retrieving a passcode generator; generating , via the machine, the passcode that is valid temporarily, based on information associated with a user from the passcode generator; determining whether the attempted access is permitted, based on the passcode, including determining whether the generated passcode matches the received passcode, and if the generated passcode matches the received passcode, granting the user access to a secure entity; determining whether the generated passcode matches the received passcode, and if the generated passcode matches the received passcode, granting the user access to a secure entity; wherein the method further comprises: if the generated passcode matches the received passcode, perturbing the passcode generator to create a new passcode generator; and storing the new passcode generator in place of the passcode generator. if the generated passcode matches the received passcode, perturbing the passcode generator to create a new passcode generator; and storing the new passcode generator in place of the passcode generator.
Method for stripping a winding mandrel from a roll formed by wrapping a web around said winding mandrel (M); said method is characterised in comprising the following phases: - to support the formed roll (L) so that an end of the respective winding mandrel (M) is adjacent to a gripping and rotating means for the winding mandrel (M); - to connect the gripping and rotating means to the end of the winding mandrel (M) and through this means to place the winding mandrel in axial rotation; - to apply an axial force to the gripping and rotating means and to the winding mandrel (M) using a translation means; - to block the roll, by means of presses or jaws, at least during the rotation and stripping phases of the winding mandrel (M); - to put the winding mandrel in axial rotation, during the axial translation of the mandrel, in a rotation direction opposite to that of the roll winding; - to translate this winding mandrel, according to the axial force, sliding and stripping said mandrel (M) off the formed roll (L). - to support the formed roll (L) so that an end of the respective winding mandrel (M) is adjacent to a gripping and rotating means for the winding mandrel (M); - to connect the gripping and rotating means to the end of the winding mandrel (M) and through this means to place the winding mandrel in axial rotation; - to apply an axial force to the gripping and rotating means and to the winding mandrel (M) using a translation means; - to block the roll, by means of presses or jaws, at least during the rotation and stripping phases of the winding mandrel (M); - to put the winding mandrel in axial rotation, during the axial translation of the mandrel, in a rotation direction opposite to that of the roll winding; - to translate this winding mandrel, according to the axial force, sliding and stripping said mandrel (M) off the formed roll (L).
A cyclin-dependent kinase 2 (CDK2) inhibitor composition for use in preventing hearing loss induced by noise or caused by cisplatin-chemotherapy, wherein said CDK2 inhibitor is or a pharmaceutically acceptable salt thereof.
A method for cementing a terranean borehole , comprising: pumping a collection of fluids into the borehole through a passage of a tubular string extending into the borehole ; flowing the collection of fluids up an annulus between the tubular string and a sidewall of the borehole ; the method is characterised by comparing a pressure of the collection of fluids measured at an inlet of the passage of the tubular string at a first time with a pressure of the collection of fluids measured at the inlet of the passage of the tubular string at a second time, wherein the second time is after the first time; and estimating a position of the collection of fluids in the borehole based on the comparison of the pressures of the collection of fluids measured at the first and second times. pumping a collection of fluids into the borehole through a passage of a tubular string extending into the borehole ; flowing the collection of fluids up an annulus between the tubular string and a sidewall of the borehole ; the method is characterised by comparing a pressure of the collection of fluids measured at an inlet of the passage of the tubular string at a first time with a pressure of the collection of fluids measured at the inlet of the passage of the tubular string at a second time, wherein the second time is after the first time; and estimating a position of the collection of fluids in the borehole based on the comparison of the pressures of the collection of fluids measured at the first and second times.
Transparent pane, comprising at least one transparent substrate and at least one electrically conductive coating on at least one surface of the transparent substrate wherein the electrically conductive coating has at least four functional layers arranged one atop another and each functional layer at least comprises • a layer of optically highly refractive material with a refractive index ≥ 1.3, • a first matching layer above the layer of optically highly refractive material, • an electrically conductive layer above the first matching layer , • a second matching layer above the electrically conductive layer , wherein the layer thickness of one of the electrically conductive layers is in each case from 5 nm to 25 nm and the total layer thickness of all electrically conductive layers is from 20 nm to 100 nm, characterized in that at least one layer of optically highly refractive material arranged between two electrically conductive layers comprises • a layer of a dielectric material with a refractive index less than or equal to 2.1 and • a layer of an optically highly refractive material with a refractive index greater than or equal to 2.1 and a further layer (4.1) of optically highly refractive material with a refractive index ≥ 1.9 is arranged above the uppermost functional layer . • a layer of optically highly refractive material with a refractive index ≥ 1.3, • a first matching layer above the layer of optically highly refractive material, • an electrically conductive layer above the first matching layer , • a second matching layer above the electrically conductive layer , wherein • a layer of a dielectric material with a refractive index less than or equal to 2.1 and • a layer of an optically highly refractive material with a refractive index greater than or equal to 2.1 and
A retractable sensor system a switchgear cabinet having a user accessible area and an inaccessible area, the retractable sensor system comprising: a rack mountable in the inaccessible area of the switchgear cabinet; a slider configured to retain a plurality of sensors , the slider movably engaged to the rack to slide in one direction to a racked-in position in which the sensors are located to sense conditions in the switchgear cabinet and to slide in an opposite direction to a racked-out position in which the sensors are drawn into the user accessible area of the switchgear cabinet; and at least one sensor being retained by the slider, characterized by said at least one sensor comprising: at least one of an optical sensor, a thermal sensor, a pressure sensor and a vibration sensor and/or a sensor positioned away from switchgear components to sense a condition in the switchgear cabinet when the slider is in the racked-in position. a rack mountable in the inaccessible area of the switchgear cabinet; a slider configured to retain a plurality of sensors , the slider movably engaged to the rack to slide in one direction to a racked-in position in which the sensors are located to sense conditions in the switchgear cabinet and to slide in an opposite direction to a racked-out position in which the sensors are drawn into the user accessible area of the switchgear cabinet; and at least one sensor being retained by the slider, characterized by said at least one sensor at least one of an optical sensor, a thermal sensor, a pressure sensor and a vibration sensor and/or a sensor positioned away from switchgear components to sense a condition in the switchgear cabinet when the slider is in the racked-in position.
A dewatering screen for manufacturing paper having watermarks, having a carrier mold having a plurality of individual panel regions that are arranged like a grid along a longitudinal direction and a transverse direction of the dewatering screen and that produce, in each case, one of a plurality of individual panels of the watermark paper, the dewatering screen with its individual panel regions being furnished with watermark reliefs that are formed, at least in sub-regions, as high-resolution multilevel watermark reliefs and/or as filigree watermark reliefs, the watermark reliefs being arranged on the dewatering screen in register with the individual panel regions and, at least in sub-regions, spanning the individual panel regions , characterized in that, here, the watermark reliefs extend across the entire length and/or entire width of the individual panel regions .
Method for driving a brake device of a lift system , wherein the brake device comprises at least one automatically releasable pressure element , which is intended to effect a braking action, and also means for automatically releasing the or each pressure element , wherein a respectively required braking torque (M) of a lift car of the lift system is ascertained by means of a model of the lift system , a respective direction of travel (R), a state of charge (m) and a desired car deceleration (Vs), wherein a drive signal for driving a device, which functions as a means for automatically releasing the or each pressure element , is generated on the basis of the braking torque (M) and is supplied to said device, wherein, when the lift system is braked, an actual car deceleration (Vi) is ascertained and wherein calibration of a braking characteristic (K3) is performed on the basis of the ascertained actual car deceleration (Vi), specifically calibration of the ascertained required braking torque (M) or calibration of the drive signal which is generated on the basis of the ascertained required braking torque (M).
A method for cloud gaming, comprising: generating a video frame when executing a video game at a server; scanning-in the video frame to an encoder at the server scanline-by-scanline; encoding one or more encoder slices as one or more encoded slices at the encoder, wherein each encoded slice comprises one or more scanlines, wherein each encoded slice is delivered to a buffer at an encoder fill rate; draining a first encoded slice from the buffer to stream the first encoded slice at a buffer drain rate over a network to a client, wherein the first encoded slice is streamed over the network before fully encoding one or more other encoder slices of the video frame; receiving the one or more encoded slices of the video frame at the client; and decoding a first encoded slice at a decoder of the client before fully receiving one or more other encoded slices of the video frame, wherein a client VSYNC signal and a server VSYNC signal are synchronized and offset to enable reduced latency of display of decoded slices. generating a video frame when executing a video game at a server; scanning-in the video frame to an encoder at the server scanline-by-scanline; encoding one or more encoder slices as one or more encoded slices at the encoder, wherein each encoded slice comprises one or more scanlines, wherein each encoded slice is delivered to a buffer at an encoder fill rate; draining a first encoded slice from the buffer to stream the first encoded slice at a buffer drain rate over a network to a client, wherein the first encoded slice is streamed over the network before fully encoding one or more other encoder slices of the video frame; receiving the one or more encoded slices of the video frame at the client; and decoding a first encoded slice at a decoder of the client before fully receiving one or more other encoded slices of the video frame, wherein a client VSYNC signal and a server VSYNC signal are synchronized and offset to enable reduced latency of display of decoded slices.
A bridge device for an elevator , comprising a jumper for bridging an electric element of the elevator operated in a first operating mode of the elevator , a monitoring means for monitoring the jumper , and an alarm unit , wherein the alarm unit is capable of generating an alarm signal if the monitoring means determines that the element has been bridged by the jumper longer than a predefined time period when the elevator works in a second operating mode, characterized in that the monitoring means comprises an electric current sensor for measuring an electric current through the jumper . a jumper for bridging an electric element of the elevator operated in a first operating mode of the elevator , a monitoring means for monitoring the jumper , and an alarm unit ,
An aerosol-generating system comprising: a liquid storage portion comprising a container for holding a liquid aerosol-generating substrate and defining an opening; a heater assembly , wherein the heater assembly comprises at least one electrically operated heating element and, wherein the heating element extends across the opening along a transverse plane; and a first channel defining a first flow route, wherein a portion of the first channel is arranged with respect to the transverse plane such that the at least a portion of the first channel directs air originating from outside the system to impinge against a center portion of the at least one heating element and across a surface portion of the at least one heating element to provide an airflow over the heating element in a radially outward direction, wherein the portion of the first channel which directs air into impingement against and across the surface portion of the at least one heating element is orthogonal to the transverse plane, characterized in that the portion of the first channel and the liquid storage portion are located on opposite sides of the heating element. a liquid storage portion comprising a container for holding a liquid aerosol-generating substrate and defining an opening; a heater assembly , wherein the heater assembly comprises at least one electrically operated heating element and, wherein the heating element extends across the opening along a transverse plane; and a first channel defining a first flow route, wherein a portion of the first channel is arranged with respect to the transverse plane such that the at least a portion of the first channel directs air originating from outside the system to impinge against a center portion of the at least one heating element and across a surface portion of the at least one heating element to provide an airflow over the heating element in a radially outward direction, wherein the portion of the first channel which directs air into impingement against and across the surface portion of the at least one heating element is orthogonal to the transverse plane, characterized in that the portion of the first channel and the liquid storage portion are located on opposite sides of the heating element.