mhurhangee/patent-ind-claim-en huggingface dataset:
An electric power and/or data supply assembly for the arrangement of modular units on raceways , comprising: - a fixing element configured for arranging the modular unit such that it is attached to the raceway ; - two contact surfaces for the fixing element to establish contact on the raceway ; - a receiving portion configured for arranging the modular unit such that it is coupled in the fixing element ; - two raised elements for interlocking in the raceway , the raised elements being arranged in projection in correspondence with each of the contact surfaces ; such that a position of the modular unit on the raceway can be fixed by means of the fixing element ; the fixing element comprising two portions, each of the portions having one of the contact surfaces and one of the raised elements , and wherein the two portions form a single part, the two portions are separated from one another by a channel which is configured such that it has a reducible width, so it is possible to apply pressure on the raceway through the contact surfaces ; wherein said supply assembly further comprises pressure-applying means in the form of a threaded shaft and a corresponding through hole extending along the two portions, said through hole having a thread complementary to the thread of the threaded shaft, and said through hole passing through the channel laterally, such that when the threaded shaft is threaded in the through hole , the width of the channel is configured to reduce, which moves the two portions, the contact surfaces and the raised elements closer to one another, establishing compression on the raceway . - a fixing element configured for arranging the modular unit such that it is attached to the raceway ; - two contact surfaces for the fixing element to establish contact on the raceway ; - a receiving portion configured for arranging the modular unit such that it is coupled in the fixing element ; - two raised elements for interlocking in the raceway , the raised elements being arranged in projection in correspondence with each of the contact surfaces ; the fixing element comprising two portions, each of the portions having one of the contact surfaces and one of the raised elements , and wherein the two portions form a single part, the two portions are separated from one another by a channel which is configured such that it has a reducible width, so it is possible to apply pressure on the raceway through the contact surfaces ; wherein said supply assembly further comprises pressure-applying means in the form of a threaded shaft and a corresponding through hole extending along the two portions, said through hole having a thread complementary to the thread of the threaded shaft, and said through hole passing through the channel laterally, such that when the threaded shaft is threaded in the through hole , the width of the channel is configured to reduce, which moves the two portions, the contact surfaces and the raised elements closer to one another, establishing compression on the raceway .
Centrifugal deflection device intended to be fitted to a surgical or dental handpiece for preventing the penetration of foreign matter that results from an operation, said centrifugal deflection device including a ring coupled in rotation via a tool shank to a drive shaft of the handpiece , the ring including a flange of truncated shape covered by a sleeve fixed to the front end of the body of the handpiece , and which, with the flange , delimits an ejection chamber , said ejection chamber including an inlet that communicates with a rear area of the handpiece and an outlet that communicates with the external environment, the flange comprising, from the front towards the rear of the handpiece , a front active section having a first diameter (D1) at the outlet of the ejection chamber , and a second diameter (D4) at the inlet of the ejection chamber , the first diameter (D1) being larger than the second diameter (D4), the front active section being connected to a rear section , which has a diameter (D2) by an intermediate section which has a diameter (D3), the sleeve the sleeve being removably mounted on the body of the handpiece , the ring being free to rotate but axially locked relative to the sleeve , the diameter (D2) of the rear section being larger than the diameter (D3) of the intermediate section and smaller than the first diameter (D1) of the front active section , the diameter (D4) being equal to the diameter (D3), the flange being extended towards the rear of the handpiece by a plurality of flexible arms .
A terminal comprising: a control section configured to determine a resource of an uplink shared channel, based on a transmission periodicity configured by a higher layer parameter and offset information indicated by downlink control information, wherein the offset information indicates a duration from a reference timing to a start timing of a resource of the uplink shared channel to which the transmission periodicity is applied, the reference timing being based on a notification timing of the downlink control information; and a transmission section configured to transmit the uplink shared channel. a control section configured to determine a resource of an uplink shared channel, based on a transmission periodicity configured by a higher layer parameter and offset information indicated by downlink control information, wherein the offset information indicates a duration from a reference timing to a start timing of a resource of the uplink shared channel to which the transmission periodicity is applied, the reference timing being based on a notification timing of the downlink control information; and a transmission section configured to transmit the uplink shared channel.
An apparatus for producing a packaging precursor , wherein the packaging precursor comprises at least 80% by weight, based on the packaging precursor , of a sheet-like composite , the composite comprising: i. a composite plastic layer , ii. a composite support layer , iii. a first composite edge region , iv. a second composite edge region , wherein the device includes as device components along a flow direction : a) a planar transport means adapted to transport the planar sheet-like composite , the transport means including a transport surface adapted to support the composite ; downstream thereof b) a first heating means adapted to heat said first composite edge portion , said first heating means including energy dissipating segments ; downstream thereof c) a contacting means adapted to connect the first composite edge portion to the second composite edge portion ; wherein the first heating means is adapted to deliver energy along the current direction ; wherein the first heating means includes a first energy output segment along the direction of flow and a last energy output segment along the direction of flow furthest from the first energy output segment ; characterized in that the first energy output segment is configured to output a higher heat output than the last energy output segment . i. a composite plastic layer , ii. a composite support layer , iii. a first composite edge region , iv. a second composite edge region , a) a planar transport means adapted to transport the planar sheet-like composite , the transport means including a transport surface adapted to support the composite ; downstream thereof b) a first heating means adapted to heat said first composite edge portion , said first heating means including energy dissipating segments ; downstream thereof c) a contacting means adapted to connect the first composite edge portion to the second composite edge portion ;
A wiping device comprising: a wiping member configured to wipe a nozzle surface of a discharging head configured to discharge a liquid composition from nozzles formed on the nozzle surface , the wiping member comprising fiber with projections present in a cross section perpendicular to an axis of the fiber and continuous in a direction of the axis of the fiber, characterized in that the fiber with projections has a single fiber diameter of from 10 to 50 μm, and wherein the wiping device is configured such that a line pressure is 1.7 N/cm or less at a contact portion between the wiping member and the nozzle surface during wiping of the nozzle surface by the wiping member . a wiping member configured to wipe a nozzle surface of a discharging head configured to discharge a liquid composition from nozzles formed on the nozzle surface , the wiping member comprising fiber with projections present in a cross section perpendicular to an axis of the fiber and continuous in a direction of the axis of the fiber, characterized in that the fiber with projections has a single fiber diameter of from 10 to 50 μm, and wherein the wiping device is configured such that a line pressure is 1.7 N/cm or less at a contact portion between the wiping member and the nozzle surface during wiping of the nozzle surface by the wiping member .
A communication method, comprising: receiving , by a residential access network user plane, RAN-UP, entity, a data packet transmitted from a core network; performing a determination, by the RAN-UP entity, that the data packet is not to be transmitted to a user equipment, UE, in an inactive state upon determining that a packet length of the data packet is greater than a certain length; and transmitting , by the RAN-UP entity, a message to a residential access network control plane, RAN-CP, entity to indicate to the RAN-CP entity to send a paging message to the UE, wherein the message is transmitted based on performing the determination, and the paging message indicates to the UE to emigrate from the inactive state. receiving , by a residential access network user plane, RAN-UP, entity, a data packet transmitted from a core network; performing a determination, by the RAN-UP entity, that the data packet is not to be transmitted to a user equipment, UE, in an inactive state upon determining that a packet length of the data packet is greater than a certain length; and transmitting , by the RAN-UP entity, a message to a residential access network control plane, RAN-CP, entity to indicate to the RAN-CP entity to send a paging message to the UE, wherein the message is transmitted based on performing the determination, and the paging message indicates to the UE to emigrate from the inactive state.
An exercise machine configured to assume a power-controlled training mode, the exercise machine comprising a data processing module , characterized in that the data processing module of the exercise machine is configured to: - vary a percentage of a parameter representative of the athletic preparation of a user, the percentage of the parameter representative of the athletic preparation of the user being manually varied by a user or being automatically varied by the exercise machine on the basis of a set trend set in an user's training program, said parameter representative of the athletic preparation of the user having been determined as a function of user's physiological variables by means of an appropriate mathematical algorithm; - perform the power control to control the power delivered by the user during physical activity so that it is kept equal to a target power value delivered by the user during the physical activity, such a target power value being determined, by the data processing module of the exercise machine , on the basis of the percentage of the parameter representative of the athletic preparation of a user varied by the data processing module of the exercise machine . - vary a percentage of a parameter representative of the athletic preparation of a user, the percentage of the parameter representative of the athletic preparation of the user being manually varied by a user or being automatically varied by the exercise machine on the basis of a set trend set in an user's training program, said parameter representative of the athletic preparation of the user having been determined as a function of user's physiological variables by means of an appropriate mathematical algorithm; - perform the power control to control the power delivered by the user during physical activity so that it is kept equal to a target power value delivered by the user during the physical activity, such a target power value being determined, by the data processing module of the exercise machine , on the basis of the percentage of the parameter representative of the athletic preparation of a user varied by the data processing module of the exercise machine .
A computer-implemented method for determining how reflective an object within a scene , specifically a volume, is with a radar, the method comprising: receiving, by at least one data processor, data characterizing a plurality of measurements for the scene received by a plurality of sensor elements forming a sensor array , wherein the measurements represent radiation transmitted by a radiative imaging system and reflected by the object within the scene ; and being characterized by : applying a first mapping, using the at least one data processor, between a plurality of scene sub-domains and the plurality of sensor elements , each scene sub-domain including a plurality of associated voxels that are a subset of all voxels in the scene , wherein the first mapping includes computing a first block diagonal transfer matrix characterizing transformation of the center of scene sub-domains to sensor elements ; applying a second mapping between a plurality of voxels associated with one of the plurality of scene sub-domains and a plurality of measurement sub-domains , each measurement sub-domain including measurements of a plurality of associated proximal sensor elements that are a subset of all sensor elements in the sensor array ; wherein the second mapping characterizes a local spherical phase correction of the measurement and includes computing a second block diagonal matrix composed of a plurality of sub-matrices associated with the sub-domains of the scene ; and determining, using the at least one data processor, one or more scattering coefficients of the scene by applying the first mapping and the second mapping to the received data, wherein a scattering coefficient is a measure of how reflective an object within a scene is with a radar. applying a first mapping, using the at least one data processor, between a plurality of scene sub-domains and the plurality of sensor elements , each scene sub-domain including a plurality of associated voxels that are a subset of all voxels in the scene , wherein the first mapping includes computing a first block diagonal transfer matrix characterizing transformation of the center of scene sub-domains to sensor elements ; applying a second mapping between a plurality of voxels associated with one of the plurality of scene sub-domains and a plurality of measurement sub-domains , each measurement sub-domain including measurements of a plurality of associated proximal sensor elements that are a subset of all sensor elements in the sensor array ; wherein the second mapping characterizes a local spherical phase correction of the measurement and includes computing a second block diagonal matrix composed of a plurality of sub-matrices associated with the sub-domains of the scene ; and determining, using the at least one data processor, one or more scattering coefficients of the scene by applying the first mapping and the second mapping to the received data, wherein a scattering coefficient is a measure of how reflective an object within a scene is with a radar.
A drive unit for a medical device , comprising: - a drive unit housing , - a drive member which is retained in the drive unit housing and movable relative to the drive unit housing to drive an operation of the medical device, the drive member comprising a coupler output portion which is configured to be operatively connected to a liquid handling unit , - a drive mechanism retained in the drive unit housing, wherein the drive mechanism is coupleable or coupled to the drive member via a mechanism interface and is configured to transfer a driving force or torque to the drive member, - a sealing member , the sealing member being provided to establish a sealed interface with the drive member, wherein the sealed interface defines a sealed section of the interior of the drive unit housing, wherein the mechanism interface is arranged within the sealed section and the coupler output portion is arranged outside of the sealed section, wherein the drive member is axially movable relative to the sealing member from a first position to a second position, and wherein the drive unit is configured such that a tightness of the sealed interface is different in the first position and in the second position. - a drive unit housing , - a drive member which is retained in the drive unit housing and movable relative to the drive unit housing to drive an operation of the medical device, the drive member comprising a coupler output portion which is configured to be operatively connected to a liquid handling unit , - a drive mechanism retained in the drive unit housing, wherein the drive mechanism is coupleable or coupled to the drive member via a mechanism interface and is configured to transfer a driving force or torque to the drive member, - a sealing member , the sealing member being provided to establish a sealed interface with the drive member, wherein the sealed interface defines a sealed section of the interior of the drive unit housing, wherein the mechanism interface is arranged within the sealed section and the coupler output portion is arranged outside of the sealed section, wherein the drive member is axially movable relative to the sealing member from a first position to a second position, and wherein the drive unit is configured such that a tightness of the sealed interface is different in the first position and in the second position.
A polyolefin multilayer microporous membrane comprising: at least first microporous layers which form both surface layers and at least a second microporous layer disposed between said both surface layers, wherein said first microporous layers contain 5% by weight or more of polypropylene characterised in that said second microporous layer contains 35% by weight or more of ultra high molecular weight polyethylene; and wherein the static friction coefficient of one of said surface layers of said polyolefin multilayer microporous membrane against the other surface layer in longitudinal direction (MD) is 1.1 or less measured according to ASTM D1894 at a test speed of 15 cm/minute, and wherein the pore density calculated from the average pore radius measured by mercury porosimetry method and the porosity, according to the formula below is 4 or more: pore density = P / A 3 × 10 4 wherein A represents the average pore radius (nm) measured by mercury porosimetry method and P represents the porosity (%). at least first microporous layers which form both surface layers and at least a second microporous layer disposed between said both surface layers, wherein said first microporous layers contain 5% by weight or more of polypropylene characterised in that said second microporous layer contains 35% by weight or more of ultra high molecular weight polyethylene; and wherein the static friction coefficient of one of said surface layers of said polyolefin multilayer microporous membrane against the other surface layer in longitudinal direction (MD) is 1.1 or less measured according to ASTM D1894 at a test speed of 15 cm/minute, and wherein the pore density calculated from the average pore radius measured by mercury porosimetry method and the porosity, according to the formula below is 4 or more: pore density = P / A 3 × 10 4 wherein A represents the average pore radius (nm) measured by mercury porosimetry method and P represents the porosity (%).
An optical device for forming a light sheet in a sample , said optical device comprising: a spatial light modulator ; a galvanometer that is configured to sweep an excitation beam in one direction, and an objective configured to form a beam waist of the scanned excitation beam to form a light sheet at the sample , wherein the spatial light modulator is configured to output an image that is relayed by one ore more lenses to the galvanometer , and wherein the image that is received by the galvanometer is relayed through one or more lenses to a back adapture of the objective, such that a plane of the spatial light modulator is conjugate to a back pupil plane of the objective , wherein the beam waist is shifted along the light sheet direction of light travel, providing multiple beam waists to create a thinner, longer light sheet, characterized in that the spatial light modulator is configured to output an image that comprises multiple copies of a beam shaping pattern in the direction of the scanned light sheet, thereby simultaneously generating several beams that propagate through the sample at several angles to reduce shadowing effects. a spatial light modulator ; a galvanometer that is configured to sweep an excitation beam in one direction, and an objective configured to form a beam waist of the scanned excitation beam to form a light sheet at the sample , wherein the spatial light modulator is configured to output an image that is relayed by one ore more lenses to the galvanometer , and wherein the image that is received by the galvanometer is relayed through one or more lenses to a back adapture of the objective, such that a plane of the spatial light modulator is conjugate to a back pupil plane of the objective , wherein the beam waist is shifted along the light sheet direction of light travel, providing multiple beam waists to create a thinner, longer light sheet, characterized in that the spatial light modulator is configured to output an image that comprises multiple copies of a beam shaping pattern in the direction of the scanned light sheet, thereby simultaneously generating several beams that propagate through the sample at several angles to reduce shadowing effects.
A passivation process of a tinplate comprising the following steps in sequence: a. submitting said tinplate to at least one cathodic electrolytic treatment in an aqueous solution containing at least one sulphate of an alkali metal to obtain a tin oxide surface layer having thickness lower than 6 mC/cm 2 ; b. subjecting said tinplate to at least one cathodic electrolytic treatment in an aqueous solution containing at least sulphate ions and zirconium ions to form a passivation layer containing zirconium on said tin oxide surface layer. a. submitting said tinplate to at least one cathodic electrolytic treatment in an aqueous solution containing at least one sulphate of an alkali metal to obtain a tin oxide surface layer having thickness lower than 6 mC/cm 2 ; b. subjecting said tinplate to at least one cathodic electrolytic treatment in an aqueous solution containing at least sulphate ions and zirconium ions to form a passivation layer containing zirconium on said tin oxide surface layer.