mhurhangee/patent-ind-claim-en huggingface dataset:
A crane for erecting a tower including a plurality of tower segments including one or more mounts on an outside of the tower segments, the crane comprising: a telescopic mast configured to change between at least a retracted state and an extended state, and a jib rotatably mounted with respect to the telescopic mast and comprising lifting equipment , wherein the telescopic mast comprises a lower mast segment having one or more lower clamp assemblies configured to selectively grip the mounts of the tower and a roller assembly for rolling along the tower, and one or more further mast segments having an upper clamp assembly configured to selectively grip the mounts of the tower, the further mast segments being slidable with respect to the lower mast segment. a telescopic mast configured to change between at least a retracted state and an extended state, and a jib rotatably mounted with respect to the telescopic mast and comprising lifting equipment , wherein the telescopic mast comprises a lower mast segment having one or more lower clamp assemblies configured to selectively grip the mounts of the tower and a roller assembly for rolling along the tower, and one or more further mast segments having an upper clamp assembly configured to selectively grip the mounts of the tower, the further mast segments being slidable with respect to the lower mast segment. a lower mast segment having one or more lower clamp assemblies configured to selectively grip the mounts of the tower and a roller assembly for rolling along the tower, and one or more further mast segments having an upper clamp assembly configured to selectively grip the mounts of the tower, the further mast segments being slidable with respect to the lower mast segment.
A system comprising: a controller configured to receive a first signal representative of a load on an engine and to generate a control parameter based on the first signal; one or more harmonic scaling elements , each configured to receive the control parameter and one engine harmonic signal of a plurality of engine harmonic signals and to generate a scaled version of the received engine harmonic signal , each harmonic scaling element including a harmonic specific mapping element for mapping the control parameter to a harmonic specific scaling factor , wherein at least some of the harmonic specific scaling factor values of the harmonic specific mapping element are mapped to control parameter values which are associated with a negative load on the engine; and an adjustable gain element for forming a scaled version of the received engine harmonic signal including applying the harmonic specific scaling factor to the received engine harmonic signal , characterised in that the controller is further configured to apply a scale factor to the first signal such that values of the first signal which are greater than a first threshold map to a linear range. a controller configured to receive a first signal representative of a load on an engine and to generate a control parameter based on the first signal; one or more harmonic scaling elements , each configured to receive the control parameter and one engine harmonic signal of a plurality of engine harmonic signals and to generate a scaled version of the received engine harmonic signal , each harmonic scaling element including a harmonic specific mapping element for mapping the control parameter to a harmonic specific scaling factor , wherein at least some of the harmonic specific scaling factor values of the harmonic specific mapping element are mapped to control parameter values which are associated with a negative load on the engine; and an adjustable gain element for forming a scaled version of the received engine harmonic signal including applying the harmonic specific scaling factor to the received engine harmonic signal , characterised in that the controller is further configured to apply a scale factor to the first signal such that values of the first signal which are greater than a first threshold map to a linear range. a harmonic specific mapping element for mapping the control parameter to a harmonic specific scaling factor , wherein at least some of the harmonic specific scaling factor values of the harmonic specific mapping element are mapped to control parameter values which are associated with a negative load on the engine; and an adjustable gain element for forming a scaled version of the received engine harmonic signal including applying the harmonic specific scaling factor to the received engine harmonic signal , characterised in that the controller is further configured to apply a scale factor to the first signal such that values of the first signal which are greater than a first threshold map to a linear range.
A polyolefin formulation comprising from 60 to 99.45 weight percent (wt%) of (A) an ethylenic-based (co)polymer composition consisting essentially of an ethylenic-based (co)polymer or a combination of the ethylenic-based (co)polymer and a polypropylene polymer, with the proviso that the polypropylene polymer is from 0 to < 40 wt% of the polyolefin formulation, the ethylenic-based (co)polymer being (i) a polyethylene homopolymer; or (ii) an ethylene/alpha-olefin copolymer comprising 50 to 99.0 wt% ethylenic monomeric units and 50 to > 0 wt% (C 3 -C 20 )alpha-olefin-derived comonomeric units; from 0.05 to 2.0 wt% of (B) a lower temperature decomposing organic peroxide; and from 0.5 to 5 wt% of (C) a higher temperature decomposing organic peroxide, all based on total weight of the polyolefin formulation; and wherein constituent (C) has a 10-hour half-life temperature that is greater than 110.0° C. and/or a 1-hour half-life temperature that is greater than 130.0° C. and wherein the constituent (B) has a 10-hour half-life temperature that is less than or equal to 110.0° C. and/or a 1-hour half-life temperature that is less than or equal to 130.0° C., all when measured according to the respective Half-Life Temperature Test Method.
A method at an application host for sharing user settings across a plurality of web applications from a dialog provided in a first web application, comprising: providing the plurality of web applications to a first client machine , in communication with the application host; receiving a user command request to change the user settings identifying exposed settings for the plurality of web applications, wherein the exposed settings are user settings which a user is enabled to adjust and which are exposed on a per application basis; providing a dialog populated with the exposed settings on the first client machine within the first web application of the plurality of applications, wherein the dialog allows the user to browse and modify the exposed settings for the plurality of web applications, including and in addition to the first web application providing the dialog; receiving, via the dialog, updates to the exposed settings of a second web application of the plurality of web applications distinct from the first web application, wherein the updates do not affect the first web application; transmitting the updated exposed settings of the second web application to the first client machine for updating a first local cache on the first client machine according to the updates of the exposed settings of the second web application; and updating an application cache on the application host according to the updates of the exposed settings of the second web application. providing the plurality of web applications to a first client machine , in communication with the application host; receiving a user command request to change the user settings identifying exposed settings for the plurality of web applications, wherein the exposed settings are user settings which a user is enabled to adjust and which are exposed on a per application basis; providing a dialog populated with the exposed settings on the first client machine within the first web application of the plurality of applications, wherein the dialog allows the user to browse and modify the exposed settings for the plurality of web applications, including and in addition to the first web application providing the dialog; receiving, via the dialog, updates to the exposed settings of a second web application of the plurality of web applications distinct from the first web application, wherein the updates do not affect the first web application; transmitting the updated exposed settings of the second web application to the first client machine for updating a first local cache on the first client machine according to the updates of the exposed settings of the second web application; and updating an application cache on the application host according to the updates of the exposed settings of the second web application.
A thin-film transistor, comprising: an active layer disposed on a substrate ; a gate electrode disposed below the active layer ; a source electrode and a drain electrode on the active layer and that are electrically connected to the active layer ; one conductive layer below the active layer and in direct physical contact with the active layer , wherein the conductive layer is configured to laterally overlap with both at least a portion of the gate electrode and a portion of the active layer ; and a gate insulating film that is formed between the active layer and the gate electrode ;wherein the conductive layer is made from a metal material and has a higher carrier concentration than the portion of the active layer that it overlaps such that a channel length is a sum of a distance (L1) between a portion of the active layer in contact with the source electrode and one end of the conductive layer and a distance (L2) between a portion of the active layer in contact with the drain electrode and the other end of the conductive layer . an active layer disposed on a substrate ; a gate electrode disposed below the active layer ; a source electrode and a drain electrode on the active layer and that are electrically connected to the active layer ; one conductive layer below the active layer and in direct physical contact with the active layer , wherein the conductive layer is configured to laterally overlap with both at least a portion of the gate electrode and a portion of the active layer ; and a gate insulating film that is formed between the active layer and the gate electrode ;wherein the conductive layer is made from a metal material and has a higher carrier concentration than the portion of the active layer that it overlaps such that a channel length is a sum of a distance (L1) between a portion of the active layer in contact with the source electrode and one end of the conductive layer and a distance (L2) between a portion of the active layer in contact with the drain electrode and the other end of the conductive layer .
A measurement device for measuring a change in physical quantity generated in an object to be measured, the measurement device comprising: a detector that converts the change in physical quantity generated in the object to be measured into an electric signal and outputs the converted electric signal; and a sensor amplifier that applies a sinusoidal wave having a predetermined period for driving the detector to the detector and receives a signal output from the detector, wherein the sensor amplifier has a receiving circuit that extracts a component of a physical quantity measured by the detector from a received signal input from the detector to the sensor amplifier, and the receiving circuit defines a Fourier transform of the received signal as a function that adds an odd harmonic component to a component in synchronization with the sinusoidal wave having the predetermined period, and uses the function including a component in synchronization with the sinusoidal wave having the predetermined period and an odd harmonic component thereof as a correlation function for extracting a resistance component converted from the physical quantity from the received signal. a detector that converts the change in physical quantity generated in the object to be measured into an electric signal and outputs the converted electric signal; and a sensor amplifier that applies a sinusoidal wave having a predetermined period for driving the detector to the detector and receives a signal output from the detector, wherein the sensor amplifier has a receiving circuit that extracts a component of a physical quantity measured by the detector from a received signal input from the detector to the sensor amplifier, and the receiving circuit defines a Fourier transform of the received signal as a function that adds an odd harmonic component to a component in synchronization with the sinusoidal wave having the predetermined period, and uses the function including a component in synchronization with the sinusoidal wave having the predetermined period and an odd harmonic component thereof as a correlation function for extracting a resistance component converted from the physical quantity from the received signal.
A method performed by a device, to determine decoding complexity information associated with media content, the method comprising: sending a request for media content to a content providing device; receiving the media content; decoding the media content; displaying the media content; the method characterized by : determining the decoding complexity information that indicates at least one of the following: at least one of a maximum, a minimum, or an average amount of power, at least one of a maximum, a minimum, or an average amount of time, or at least one of a maximum, a minimum, or an average amount of computing resources, used to decode or display the media content at the device; and sending the decoding complexity information to a remote source. sending a request for media content to a content providing device; receiving the media content; decoding the media content; displaying the media content; determining the decoding complexity information that indicates at least one of the following: at least one of a maximum, a minimum, or an average amount of power, at least one of a maximum, a minimum, or an average amount of time, or at least one of a maximum, a minimum, or an average amount of computing resources, used to decode or display the media content at the device; and sending the decoding complexity information to a remote source.
A computer implemented method for optimization of a mobile network , the method comprising adjusting a proactive scheduling functionality in a target cell of the mobile network based on load in the target cell, wherein the proactive scheduling functionality is configured by a proactive scheduling parameter that defines a period of time over which an uplink connection is kept alive after sending the last bit of uplink data; characterized in that the method comprises responsive to the load in the target cell exceeding a first threshold , disabling the proactive scheduling functionality; responsive to the load in the target cell being below a second threshold , configuring the proactive scheduling parameter to a default value or gradually increasing the proactive scheduling parameter value; and responsive to the load in the target cell being between the first threshold and the second threshold , keeping the current proactive scheduling parameter value. adjusting a proactive scheduling functionality in a target cell of the mobile network based on load in the target cell, wherein the proactive scheduling functionality is configured by a proactive scheduling parameter that defines a period of time over which an uplink connection is kept alive after sending the last bit of uplink data; characterized in that the method comprises responsive to the load in the target cell exceeding a first threshold , disabling the proactive scheduling functionality; responsive to the load in the target cell being below a second threshold , configuring the proactive scheduling parameter to a default value or gradually increasing the proactive scheduling parameter value; and responsive to the load in the target cell being between the first threshold and the second threshold , keeping the current proactive scheduling parameter value.
Abutment element (B1, B2) adapted to be arranged on a profile mounted on a furniture item, wherein a shock-absorber is able to slide on the profile integral with a door and mounted to meet the abutment element (B1, B2) to activate; the abutment element (B1, B2) comprising: - a portion slidably couplable to the profile so that the abutment element (B1, B2) can slide on the profile without detaching; the abutment element (B1, B2) having a modifiable structure for creating a constraint to the sliding of the abutment element (B1, B2) so as to make it integral with the profile ; - a wedge jointable between the portion and the profile in order to anchor the abutment element to the profile by friction; - two pieces , wherein one piece comprises the said portion and the other the wedge, the pieces being able to be neared to each other to joint the wedge; - an elastic element mounted for pulling the two pieces toward one another; said elastic element avoiding accidental detachments between the pieces and therefore the loss of grip on the profile . wherein a shock-absorber is able to slide on the profile integral with a door and mounted to meet the abutment element (B1, B2) to activate; able to slide on the profile integral with a door and mounted to meet the abutment element (B1, B2) to activate; the abutment element (B1, B2) comprising: - a portion slidably couplable to the profile so that the abutment element (B1, B2) can slide on the profile without detaching; - a portion slidably couplable to the profile so that the abutment element (B1, B2) can slide on the profile without detaching; the abutment element (B1, B2) having a modifiable structure for creating a constraint to the sliding of the abutment element (B1, B2) so as to make it integral with the profile ; - a wedge jointable between the portion and the profile in order to anchor the abutment element to the profile by friction; - two pieces , wherein one piece comprises the said portion and the other the wedge, the pieces being able to be neared to each other to joint the wedge; - an elastic element mounted for pulling the two pieces toward one another; - a wedge jointable between the portion and the profile in order to anchor the abutment element to the profile by friction; - two pieces , wherein one piece comprises the said portion and the other the wedge, the pieces being able to be neared to each other to joint the wedge; - an elastic element mounted for pulling the two pieces toward one another; said elastic element avoiding accidental detachments between the pieces and therefore the loss of grip on the profile .
A holding element made of ceramic for a high-temperature furnace, said holding element comprising at least one fastening portion formed on a part of a surface of the holding element for mechanically connecting the holding element to a supporting structure , at least one heat conductor receiving portion formed on a part of the surface of the holding element for receiving a heat conductor , wherein at least one groove having a depth (t) and a width (b) is formed on a peripheral part of the surface of the holding element , said peripheral part being located between the fastening portion and the heat conductor receiving portion , which groove extends substantially over the entire periphery of the peripheral part of the surface and at least one imaginary path between the fastening portion and the heat conductor receiving portion along the surface of the holding element crosses the at least one groove , wherein the groove has an aspect ratio, formed by the ratio of the depth (t) to the width (b), of greater than or equal to 1.5.
A lock arrangement for use in association with a latch assembly , said lock arrangement comprising: a lock body having a first end with a key aperture for a key and spring biased locking members extendable from adjacent a second end, the lock body has a shape that provides orientation with respect to positioning in the latch ; and a skirt substantially surrounding the lock body adjacent the first end and towards the second end, wherein a free end of the skirt has a curved profile complementary in shape to a curved profile of an extended end of a receiving formation substantially surrounding a latch aperture of the latch assembly . a lock body having a first end with a key aperture for a key and spring biased locking members extendable from adjacent a second end, the lock body has a shape that provides orientation with respect to positioning in the latch ; and a skirt substantially surrounding the lock body adjacent the first end and towards the second end, wherein a free end of the skirt has a curved profile complementary in shape to a curved profile of an extended end of a receiving formation substantially surrounding a latch aperture of the latch assembly .
Drinking bottle cap , comprising at least: - a housing with a ring edge which surrounds an inlet opening , and with a pouring rim which surrounds a outlet opening and on whose inner circumference an inwardly projecting, circumferential sealing rim is formed; - a valve unit (30; 30') with an actuating element and with a lower part which covers the inlet opening and has a sealing element and - an upper valve disc (33; 33'), which is arranged inside the housing and which maintains a distance from the sealing edge in an open position of the valve unit (30; 30') and which abuts the sealing edge in a closed position; characterised in that - in that a valve carrier element is provided which is to be detachably connected to the housing and in which the valve unit (30; 30') is guided axially displaceably against the force of at least one spring element , and - in that at least one axially extending, resiliently deflectable guide tongue (34; 34') with an end hook extension (35; 35') is formed or fitted on the valve unit (30; 30'), which hook extension (35; 35') is guided along a guide link on the valve carrier element and/or can be fixed thereon in a form-fitting manner. - a housing with a ring edge which surrounds an inlet opening , and with a pouring rim which surrounds a outlet opening and on whose inner circumference an inwardly projecting, circumferential sealing rim is formed; - a valve unit (30; 30') with an actuating element and with a lower part which covers the inlet opening and has a sealing element and - an upper valve disc (33; 33'), which is arranged inside the housing and which maintains a distance from the sealing edge in an open position of the valve unit (30; 30') and which abuts the sealing edge in a closed position; characterised in that - in that a valve carrier element is provided which is to be detachably connected to the housing and in which the valve unit (30; 30') is guided axially displaceably against the force of at least one spring element , and - in that at least one axially extending, resiliently deflectable guide tongue (34; 34') with an end hook extension (35; 35') is formed or fitted on the valve unit (30; 30'), which hook extension (35; 35') is guided along a guide link on the valve carrier element and/or can be fixed thereon in a form-fitting manner.