mhurhangee/patent-ind-claim-en huggingface dataset:
Gas burner (1, 14; 18, 14) for a gas hob of a gas cooking appliance comprising a gas crown and a cap configured for covering the gas crown , wherein the crown comprises a gas distribution chamber confined by a circumferential wall which comprises a peripheral outer surface inclined between 20 and 70 degrees relative to the horizontal, and a plurality of gas outlet ports implemented in the circumferential wall as upwardly opened grooves passing through the circumferential wall , wherein the groove base has an inclination angle ranging from 10 to 30 degrees relative to the horizontal towards the gas distribution chamber and the gas outlet ports open into the slanted outer surface , wherein lower outer edges of the grooves define a groove perimeter corresponding to or being larger than the outer cap perimeter , characterized in that the cap comprises at a side which faces the crown in the assembled state a first horizontal, level surface area which, in the assembled state, covers the grooves at an upper end of the burner crown , wherein the upper face of the circumferential wall also is essentially flat, and wherein the gas crown is formed as a single integral part.
A needle biopsy device comprising: a handle member, having proximal and distal portions; a proximal handle member disposed to the proximal portion of the handle member; a distal handle member disposed to the distal portion of the handle member; a sheath lumen disposed within the handle member and extending from the distal portion of the handle member; an exchangeable needle housing member partially disposed within the proximal handle member , including a exchangeable needle disposed within the sheath lumen ; a needle protection member partially disposed within the proximal handle member for receiving the needle , wherein the device includes an engageable member disposed within the proximal handle member for facilitating the engagement of the needle protection member within the proximal handle member ; and the needle protection member includes a needle protection hub and a needle protection shaft . characterized in that upon retraction of the needle housing member from the device, at least one protrusion of the needle engages the needle protection hub , and upon engagement of the needle protection hub , the needle protection hub disengages from the engageable member as the needle is continually retracted and the needle protection shaft covers the distal portion of the needle . a handle member, having proximal and distal portions; a proximal handle member disposed to the proximal portion of the handle member; a distal handle member disposed to the distal portion of the handle member; a sheath lumen disposed within the handle member and extending from the distal portion of the handle member; an exchangeable needle housing member partially disposed within the proximal handle member , including a exchangeable needle disposed within the sheath lumen ; a needle protection member partially disposed within the proximal handle member for receiving the needle , wherein the device includes an engageable member disposed within the proximal handle member for facilitating the engagement of the needle protection member within the proximal handle member ; and the needle protection member includes a needle protection hub and a needle protection shaft . characterized in that upon retraction of the needle housing member from the device, at least one protrusion of the needle engages the needle protection hub , and upon engagement of the needle protection hub , the needle protection hub disengages from the engageable member as the needle is continually retracted and the needle protection shaft covers the distal portion of the needle .
Holder for releasably connecting a handle to a tool , in which the holder comprises a space in which a handle end of a handle is rotatably introducible along essentially an axis of rotation (A) to connect the handle to the holder , in which this space comprises a wall surface which extends around this axis of rotation (A), and this wall surface comprises one or more projecting cutting elements for cutting complementary screw thread by means of which the one or more cutting elements are releasably connectable and this during the rotary introduction of a handle end into the space , so that both an essentially smooth handle end and a handle end comprising external screw thread are releasably connectable to this holder , wherein the holder comprises a coupling portion comprising the one or more cutting elements and a retaining portion for retaining the coupling portion , in which the coupling portion is made of a first material and the retaining portion is made of a second material, with the hardness of the first material being greater than the hardness of the second material and with the second material substantially comprising plastic, wherein the coupling portion comprises an inner surface comprising the one or more projecting cutting elements , in which this inner surface at least partly forms said wall surface of the space , characterized in that the coupling portion comprises an outer surface which is situated opposite the inner surface , in which this outer surface comprises one or more outwardly directed protrusions , and in which the retaining portion bears against the outer surface of the coupling portion in such a way that the retaining portion at least partly encloses the one or more protrusions .
System comprising a first and a second node (2 1 , 2 2 ) of a linear cellular network, the first node (2 1 ) having a first antenna (7 1 ) for wirelessly communicating with a user terminal located within a first coverage area (9 1 ) of the first node (2 1 ), and the second node (2 2 ) having a second antenna (7 2 ) for wirelessly communicating with a user terminal located within a second coverage area (9 2 ) of the second node (2 2 ), wherein the first and the second coverage areas (9 1 , 9 2 ) overlap partially to create an overlap area , wherein both nodes (2 1 , 2 2 ) are configured to communicate with the user terminal over a downlink communication channel (CH) having a plurality of channel resources (CR i ), wherein a scheduler (11 1 ) of the first node (2 1 ) is configured to allocate a first subset (s 1 ) of all available channel resources (CR i ) of the downlink communication channel (CH) for communicating data over the first antenna (7 1 ), and wherein a scheduler (11 2 ) of the second node (2 2 ) is configured to allocate a second subset (s 2 ) comprising the remaining available channel resources (CR i ) of the downlink communication channel (CH) for communicating data over the second antenna (7 2 ) , wherein the second node (2 2 ) is configured to receive data to be communicated by the first node (2 1 ) in the first subset (s 1 ) of channel resources (CR i ) , and is further configured to communicate said received data in the first subset (s 1 ) of channel resources (CR i ) to a user terminal when the user terminal is located within the second coverage area (9 2 ) but outside the overlap area to extend the area available for a handover.
A LiDAR sensor comprising: a laser configured to emit a narrow electromagnetic pulse ; an avalanche photodiode configured to receive one or more electromagnetic pulses and output a response signal in response to said pulses, the avalanche photodiode being positioned to receive at least one reflected pulse being reflected by an object external from the LiDAR sensor caused by the laser, the avalanche photodiode having a bias voltage applied to it affecting the response signal; a splitter positioned to receive the narrow electromagnetic pulse and split it into at least one external pulse directed toward the object external from the LiDAR sensor and at least one calibration pulse directed toward the avalanche photodiode, the calibration pulse directed toward the photodiode being received by the avalanche photodiode before the pulse reflected by the object; and a processor configured to receive response signals from the avalanche photodiode, the processor further configured to adjust the bias voltage according to a response signal caused by the calibration pulse to compensate for temperature changes of the avalanche photodiode; and wherein the processor is configured to adjust the bias voltage such that a gain of the avalanche photodiode in response to a given detected pulse is held substantially constant. a laser configured to emit a narrow electromagnetic pulse ; an avalanche photodiode configured to receive one or more electromagnetic pulses and output a response signal in response to said pulses, the avalanche photodiode being positioned to receive at least one reflected pulse being reflected by an object external from the LiDAR sensor caused by the laser, the avalanche photodiode having a bias voltage applied to it affecting the response signal; a splitter positioned to receive the narrow electromagnetic pulse and split it into at least one external pulse directed toward the object external from the LiDAR sensor and at least one calibration pulse directed toward the avalanche photodiode, the calibration pulse directed toward the photodiode being received by the avalanche photodiode before the pulse reflected by the object; and a processor configured to receive response signals from the avalanche photodiode, the processor further configured to adjust the bias voltage according to a response signal caused by the calibration pulse to compensate for temperature changes of the avalanche photodiode; and wherein the processor is configured to adjust the bias voltage such that a gain of the avalanche photodiode in response to a given detected pulse is held substantially constant.
A thermoplastic composition comprising: from 48.9 wt% to 93.9 wt% of a thermoplastic resin component comprising polypropylene, polypropylene copolymer, blends thereof or combinations thereof; from 5 wt% to 50 wt% glass fiber; from 1 wt% to 30 wt% impact modifier; and from 0.1 wt% to 10 wt% of a polyolefin-siloxane copolymer, wherein the thermoplastic composition has a dielectric constant (Dk) of less than 2.8 at from 1-5 gigahertz (GHz) and a dissipation factor (Df) of less than 0.003 at from 1-5 GHz, the combined weight percent value of all components does not exceed 100 wt%, and all weight percent values are based on the total weight of the composition. from 48.9 wt% to 93.9 wt% of a thermoplastic resin component comprising polypropylene, polypropylene copolymer, blends thereof or combinations thereof; from 5 wt% to 50 wt% glass fiber; from 1 wt% to 30 wt% impact modifier; and from 0.1 wt% to 10 wt% of a polyolefin-siloxane copolymer, wherein the thermoplastic composition has a dielectric constant (Dk) of less than 2.8 at from 1-5 gigahertz (GHz) and a dissipation factor (Df) of less than 0.003 at from 1-5 GHz, the combined weight percent value of all components does not exceed 100 wt%, and all weight percent values are based on the total weight of the composition.
A method performed by a control node , where the control node is a central unit - control plane, CU-CP, node, for handling communication of data of one or more wireless devices in a wireless communications network, the method comprises: - triggering a control process on radio access bearers, RABs, wherein the control process is triggered by receiving a message relating to a process associated with at least one RAB, wherein the message is: a request from a core network node, via a control plane interface, to create a wireless device context in a distributed radio network node with a set of RABs for the wireless device; a request from the core network node, via the control plane interface, to remove a wireless device context with associated RABs in a distributed radio network node; a message related to a fault scenario resulting in a cleanup procedure where the wireless device context with associated RABs are released; or a message related to configuration of one or more RABs, and wherein the control process is a RAB setup, a RAB resume, a RAB suspend or a RAB release; - identifying more than one RAB, to perform the control process on, for at least one wireless device ; - bundling control information associated with the identified more than one RAB in a control signal; - providing to a process node , where the process node is a central unit - user plane, CU-UP, node, the control signal for the identified more than one RAB; and - receiving a response, from the process node , associated with the control signal, wherein the response comprises bundled confirmations and/or rejections of the control process for one or more RABs. - triggering a control process on radio access bearers, RABs, wherein the control process is triggered by receiving a message relating to a process associated with at least one RAB, wherein the message is: a request from a core network node, via a control plane interface, to create a wireless device context in a distributed radio network node with a set of RABs for the wireless device; a request from the core network node, via the control plane interface, to remove a wireless device context with associated RABs in a distributed radio network node; a message related to a fault scenario resulting in a cleanup procedure where the wireless device context with associated RABs are released; or a message related to configuration of one or more RABs, and wherein the control process is a RAB setup, a RAB resume, a RAB suspend or a RAB release; - identifying more than one RAB, to perform the control process on, for at least one wireless device ; - bundling control information associated with the identified more than one RAB in a control signal; - providing to a process node , where the process node is a central unit - user plane, CU-UP, node, the control signal for the identified more than one RAB; and - receiving a response, from the process node , associated with the control signal, wherein the response comprises bundled confirmations and/or rejections of the control process for one or more RABs.
A method for obtaining a steering matrix Q = [ Q ,.., Q ( K ) ] to be applied for MU-MIMO transmission of data, the method being implemented by a MU-MIMO communication system which comprises at least one transmitter comprising at least NTX = 2 transmit antennas and K = 2 receivers , with each d th receiver (230 or 240) comprising NRX ( d ) receive antennas (231, 232 or 241, 242, respectively), wherein ∑ d NRX ( d ) ≥ NTX, the method comprising, at the level of the transmitter , the following sequence of steps for each value of d = : - Computing a channel inversion matrix C ( d ) of size NTX × NRX ( d ) wherein: C ( d ) = ( F H F + F H F ) -1 F ( d ) H , wherein F ( d ) is a matrix of size NTX × NRX ( d ) whose components depend on those of a matrix H φ d of size NTX × NRX ( d ) which characterizes physical channel between the transmitter and the d th receiver (230 or 240) and wherein exponent H refers to the Hermitian operator; - Computing a beamforming component B ( d ) by singular value decomposition of matrix product F ( d ) C ( d ) ; and - Computing the steering matrix Q according to Q ( d ) = C ( d ) B ( d ) . - Computing a channel inversion matrix C ( d ) of size NTX × NRX ( d ) wherein: C ( d ) = ( F H F + F H F ) -1 F ( d ) H , wherein F ( d ) is a matrix of size NTX × NRX ( d ) whose components depend on those of a matrix H φ d of size NTX × NRX ( d ) which characterizes physical channel between the transmitter and the d th receiver (230 or 240) and wherein exponent H refers to the Hermitian operator; - Computing a beamforming component B ( d ) by singular value decomposition of matrix product F ( d ) C ( d ) ; and - Computing the steering matrix Q according to Q ( d ) = C ( d ) B ( d ) .
A method of anchoring a tubing cutter in a tubular string in a subterranean well, the method comprising: connecting an anchor to the tubing cutter , in which the anchor comprises at least one grip member which is displaced radially inward and outward by a respective mechanical linkage , and in which links of each respective mechanical linkage pivot in a plane that is laterally offset relative to a central longitudinal axis of the anchor ; deploying the anchor and the tubing cutter into the tubular string ; flowing a fluid through the anchor , thereby outwardly extending the at least one grip member from the anchor into contact with the tubular string ; then applying a tensile force (T) from the anchor to the tubular string ; and cutting the tubular string while the tensile force (T) is applied from the anchor to the tubular string . connecting an anchor to the tubing cutter , in which the anchor comprises at least one grip member which is displaced radially inward and outward by a respective mechanical linkage , and in which links of each respective mechanical linkage pivot in a plane that is laterally offset relative to a central longitudinal axis of the anchor ; deploying the anchor and the tubing cutter into the tubular string ; flowing a fluid through the anchor , thereby outwardly extending the at least one grip member from the anchor into contact with the tubular string ; then applying a tensile force (T) from the anchor to the tubular string ; and cutting the tubular string while the tensile force (T) is applied from the anchor to the tubular string .
A method performed by a signaling/data unit of an apparatus, comprising: automatically triggering a notifying event when a failure occurs at a network element of a mobile network system, wherein the automatic triggering of the notifying event comprises triggering a tracing of the failure using at least one of a cause code, a setting off of an alarm, and a configuring of a critical log; storing information specifically relating to the failure, wherein the storing is performed upon the automatic triggering of the notifying event, and the specific information is stored into a non-transitory memory to allow the tracing to continue after a system restart. automatically triggering a notifying event when a failure occurs at a network element of a mobile network system, wherein the automatic triggering of the notifying event comprises triggering a tracing of the failure using at least one of a cause code, a setting off of an alarm, and a configuring of a critical log; storing information specifically relating to the failure, wherein the storing is performed upon the automatic triggering of the notifying event, and the specific information is stored into a non-transitory memory to allow the tracing to continue after a system restart.
An optical frequency domain imaging apparatus comprising: a swept source providing a radiation; a splitter structure which separates the radiation into at least one first electro-magnetic radiation directed to a sample and at least one second electro-magnetic radiation directed to a reference arm , wherein a frequency of the radiation provided by the swept source is controlled thereby to vary over time; and at least one detector second arrangement configured to detect different interferences between at least one third radiation that is a return radiation from the sample which is based on the at least one first radiation and at least one fourth radiation that is a return radiation from the reference arm which is based on the at least one second radiation as a function of time; and a computer configured to generate an image, and determine information for measuring a motion within the sample based on a difference between amplitude values of the respective different interferences, characterized in that the apparatus is configured to: determine a Doppler velocity profile in the line of sight, determine a total speed profile using speckle decorrelation, subtract the Doppler profile from the speckle profile, and determine areas with turbulent flow based on the result of the subtraction. a swept source providing a radiation; a splitter structure which separates the radiation into at least one first electro-magnetic radiation directed to a sample and at least one second electro-magnetic radiation directed to a reference arm , wherein a frequency of the radiation provided by the swept source is controlled thereby to vary over time; and at least one detector second arrangement configured to detect different interferences between at least one third radiation that is a return radiation from the sample which is based on the at least one first radiation and at least one fourth radiation that is a return radiation from the reference arm which is based on the at least one second radiation as a function of time; and a computer configured to generate an image, and determine information for measuring a motion within the sample based on a difference between amplitude values of the respective different interferences, characterized in that the apparatus is configured to: determine a Doppler velocity profile in the line of sight, determine a total speed profile using speckle decorrelation, subtract the Doppler profile from the speckle profile, and determine areas with turbulent flow based on the result of the subtraction. determine a Doppler velocity profile in the line of sight, determine a total speed profile using speckle decorrelation, subtract the Doppler profile from the speckle profile, and determine areas with turbulent flow based on the result of the subtraction.
A method of predicting the likelihood that a patient will respond therapeutically to a pancreatic cancer treatment comprising the administration of Compound 1 and/or tautomers thereof or a pharmaceutically acceptable salt or hydrate thereof, wherein Compound 1 has the structure: the method comprising the steps of: STEP : determining a KRAS gene mutation status of a sample from a patient, and STEP : predicting an increased likelihood that the patient will respond therapeutically to the pancreatic cancer treatment if the patient has the presence of KRAS gene mutation(s). STEP : determining a KRAS gene mutation status of a sample from a patient, and STEP : predicting an increased likelihood that the patient will respond therapeutically to the pancreatic cancer treatment if the patient has the presence of KRAS gene mutation(s).
An apparatus for controlling flow of a fluid in a fluid conduit, comprising: - a closure member having a cone body comprising a nose and a base , wherein the nose has an outer circumferential surface defined by a geometry different from a geometry defining an outer circumferential surface of the base ; - a biasing member applying a biasing force to the closure member ; and - a sealing member receiving the closure member , a fluid seal being formed in the fluid conduit when the biasing member presses the closure member against the sealing member ; wherein the geometry of the outer circumferential surface of the cone body is designed to reduce a rate at which an annular flow space between the sealing member and the closure member increases while the closure member disengages and slides away from the sealing member , so that a pressure equalization is delayed, wherein the apparatus is configured to prevent the closure member from chattering. - a closure member having a cone body comprising a nose and a base , wherein the nose has an outer circumferential surface defined by a geometry different from a geometry defining an outer circumferential surface of the base ; - a biasing member applying a biasing force to the closure member ; and - a sealing member receiving the closure member , a fluid seal being formed in the fluid conduit when the biasing member presses the closure member against the sealing member ;
Apparatus for simultaneously and continuously determining a change in length and a change in weight of samples while heated, the apparatus comprising a furnace having a furnace chamber for simultaneously accommodating at least a first sample and a second sample , the furnace being capable of providing a predetermined temperature profile in the furnace chamber , and wherein the apparatus further comprises a length measuring device capable of detecting changes in length of the first sample and a scale capable of detecting changes in weight of the second sample while both samples are arranged and heated in the furnace chamber .